Abstract: A method of controlling an elevator system (2) comprising at least one elevator car (6), which is configured for travelling between a plurality of landings (8), comprises the steps of: displaying a hold button (26) on a mobile device (20) if the at least one elevator car (6) has stopped at a landing (8) and holding the elevator car (6) at the current landing (8) if the hold button (26) is operated.

Abstract: An elevator system having an elevator car in an elevator shaft and having a measuring tape in the elevator shaft for determining the position of the elevator car in the elevator shaft. The measuring tape is arranged vertically in the elevator shaft and has optical coding for length measurement. At least one marking element which has optical marking is arranged on the measuring tape. The marking element is fixedly arranged on the measuring tape. A sensor device which comprises a lighting source and a sensor which form a detection field for detecting the measuring tape is attached to the elevator car. The elevator system comprises an evaluation device for decoding the codings in the detection field and a control device for controlling the elevator system as a function of the coding and/or of the position of the at least one marking element on the measuring tape.

Abstract: There is provided cancelling elevator calls via a touch screen. An elevator operating panel comprises a touch screen for displaying destination floor information and receiving input from a user. A selection of a destination floor for an elevator call is obtained from the user. The selected destination floor is displayed. A swiping gesture is obtained from the user. The elevator call is cancelled when the swiping gesture is applied to the displayed selected destination floor.

Abstract: Methods and systems for reporting issues in an elevator system are provided. The reporting system includes a display located within an elevator car, an input device configured to receive input from a passenger within the elevator car, and a computing system having a processor and a memory, the computing system configured to generate a user interface on the display and configured to receive input from the input device, wherein the memory includes a list of possible issues related to the elevator car. The computing system is configured to generate a user report based on the received input, and transmit the user report to a remote location.

Abstract: A building settling detection system having at least one sensor configured between a guide rail track of an elevator system and a pit of the elevator system and a controller in communication with the at least one sensor, the controller configured to monitor an output of the at least one sensor and transmit a notification to a remote location when the output of the at least one sensor meets or exceeds a predetermined threshold indicating that the predetermined threshold is met or exceeded.

Abstract: A guide rail support of an elevator includes a guide rail bracket having a first side, a second side, a first mounting portion, and a second mounting portion. The first mounting portion is attachable to an elevator shaft and the guide rail bracket has inclined apertures in the second mounting portion. An adjustment bracket is configured to contact the second side at the second mounting portion, the adjustment bracket having inclined apertures configured to align with the inclined apertures of the guide rail bracket to define stem apertures. First and second rotating members are installed through the stem apertures. Each rotating member has (i) a rotating head that movably engages with a guide rail, (ii) an integrally formed stem configured to pass through a respective stem aperture, and (iii) a middle defining a length that is greater than a thickness of the guide rail bracket and the adjustment bracket.

Abstract: An access door arrangement of an elevator shaft, wherein at least one elevator car is moving, includes a door lock, whereby in connection with the door lock a reset switch of an inspection mode resetting device is located, whereby the door lock has a lock part movable between a lock position and an open position and whereby the reset switch is integrated in said door lock to be operated by the movement of the movable lock part or a related movable part. This solution allows an easy resetting of the inspection mode of the elevator.

Abstract: An exemplary elevator system includes an elevator car having an integrated cabin and car frame structure including a platform thickness between a floor surface in the cabin and a lowermost surface on a support beam used for supporting the car beneath the floor surface. A sheave assembly is supported beneath the floor surface. The sheave assembly includes a plurality of sheaves and a plurality of subframe beams. The sheaves and subframe beams fit within the platform thickness such that the subframe beams and the sheaves are no lower than the lowermost surface on the support beam. A plurality of isolation members are between the sheave assembly and the elevator car for isolating an interior of the cabin from vibrations associated with movement of the sheaves.

Abstract: An elevator car panel configured to open and methods of opening the same. The elevator car panel includes a handrail configured on a first side of the elevator car panel and a locking mechanism configured on a second side of the elevator car panel, the second side opposite the first side. The handrail is operably connected to the locking mechanism such that movement of the handrail from a first position to a second position operates the locking mechanism to transition from a locked position to an unlocked position and, when in the unlocked position, the elevator car panel is openable.

Abstract: An elevator hall door assembly and an elevator system, wherein the elevator hall door assembly includes a hall door header provided with a guide rail, a hall door hanger plate capable of translating in the rail of the hall door header; hall door panels located below the hall door hanger plate; guide shoes at the bottom of the hall door panels; and a hall door sill provided under the hall door panels, the hall door sill having a guide groove extending in a translation direction of the hall door panels, and the guide shoes being accommodated in the guide groove; anti-off members are further provided at the bottom of the hall door panels.

Abstract: A fixing module (2) for fixing a pallet (8) of a pallet conveyor, in particular a people conveyor, to a pallet chain (40; 50; 90) comprises a pallet side (4) comprising a connection portion (6), which is configured to be fixed in a non-rotatable manner to a pallet (8) of a pallet conveyor; a pallet chain side (10), which is configured for facing the pallet chain (40; 50; 90) and for receiving at least one fixing element (47) protruding from the pallet chain (40; 50; 90); and a securing mechanism (12, 14, 16), comprising at least one moveable securing element (12) which is configured for securing the at least one fixing element (47) within the fixing module (2) so that the fixing module (2) is non-rotatably fixed to the pallet chain (40; 50; 90).

Abstract: A pallet conveyor (70), in particular a people conveyor, comprises a plurality of pallets (8) interconnected to form an endless pallet band which is moveable in a conveying direction, and a pallet chain (50) drivingly coupled to the pallet band. The pallet chain (50) comprises a plurality of pallet chain links (42; 44); the pitch of the pallet band is larger than the pitch of the pallet chain (50); and each pallet is (8) non-rotatably connected to or integrally formed with at least one of the pallet chain links (42; 44).

Abstract: A structural health monitoring system is provided. The system includes a drive system having a first drive member a second drive member 38 operationally connected to the first drive member, and a tension member 39 operationally connecting the first drive member to the second drive member. At least one sensor 50 is configured to monitor a characteristic of at least one of the first drive member and the second drive member. A processor 54, in communication with the at least one sensor, is configured to determine if the structural health of the tension member is compromised based on the monitored characteristic. The processor is further configured to perform a safety response action when the structural health of the tension member is determined to be compromised.

Abstract: Battery gripper (12), for attracting by suction and handling starter batteries (26) of, in particular, motor vehicles, having a housing (56), in which a vacuum chamber which can be loaded with vacuum is provided and which has suction openings (84, 84) on the suction side thereof (54) which faces the starter battery to be attracted by suction, wherein the suction side is assigned a flexible lining (82) for contact with the starter battery, wherein the housing has a T-shaped cross section which runs parallel to the suction side, wherein the cross section has a bar section (64) and a web section (66) which extends transversely from the bar section, in such a way that the web section extends between the battery poles (68, 70) of the starter battery when the starter battery is attracted by suction to the battery gripper.

Abstract: An offshore floating vessel includes a hoisting system including a drive for moving connecting device and emergency brakes to inhibit motion of the connecting device; wherein the hoisting system is to be operated at least in a hoisting mode and in an active heave compensation mode; wherein hoisting system is to perform an active heave compensation when operated in the active heave compensation mode and to operate without active heave compensation when operated in the hoisting mode; wherein the emergency brakes are operable in a normally-energized mode including a de-energized state where the emergency brakes engage so as to inhibit motion of the connecting device relative to the floating vessel; wherein each emergency brake of the plurality of hydraulic emergency brakes has associated with it a separate accumulator reservoir.

Abstract: The Wedge-Lock Safe-T-Puller is a tool that provides a safe and simple way to extract a T-post. The tool uses a captured sliding shackle that travels along a wedge to provide a positive grip between the bumps on a T-post and the Post Alignment Groove on the post side of the Wedge-Lock. Using a lifting shackle or sling attached to the lifting eye at the top of the tool, force is exerted vertically, causing the tool with its wedge to slide up the T-post thereby tightening the sliding shackle against the front of the T-post. This sliding action causes the wedge and sliding shackle to “lock” together to grip the T-post. The greater the force applied, the tighter the wedge and shackle grip. The Wedge-Lock Safe-T-Puller is intended to be operated with mechanical lifting equipment such as a front-end loader, track hoe, backhoe, Skid Steer Loader, etc. The tool may also be used in conjunction with lever and stand type manual or hydraulic extractors.

Abstract: An air pressure controller having an inlet and an outlet, the controller may be configured to reduce air pressure between the inlet and the outlet and includes an exhaust port configured to exhaust air if a pressure at the outlet rises above a predetermined level.

Abstract: The present disclosure relates to a fork-lift truck, comprising, a housing, a mast, an actuating device, a framework extension assembly, a control unit, a pair of support legs. The fork-lift truck is provided with a sensor device that is arranged to detect a predetermined rotary position of at least one rotary axis of the framework extension assembly. The control unit is arranged to determine and set a maximal speed and/or a maximal acceleration, and/or a maximal deceleration, and/or a maximal lift height, and/or a maximal load weight, of the fork-lift truck based on the detected predetermined rotary position of the said at least one rotary axis.

Abstract: Provided are systems and methods for a public standard interface including a Battery Management System that allows for communication between an alternative energy source and a material handling vehicle. The alternative energy source may be a Lithium Ion Battery, a fuel cell, or another non-lead acid based battery. The Battery Management System is coupled with a CAN bus that allows for communication between the material handling vehicle and the alternative energy source. The CAN bus communicates information such as a type of the energy source, energy output limits, electric current limits and information such as an energy demand profile of the vehicle. Also included is an interface between the Battery Management System and Charger Control System.

Abstract: A pallet lift includes a pair of outer tines movable between an expanded position spaced outward away from inner tines and a retracted position adjacent the inner tines. The inner and outer tines are supported by wheels at locations spaced away from the lift mechanism. A pallet includes a plurality of nestable feet that open outwardly of the pallet to reduce the footprint. A second pallet includes a side wall extending downward from side edges of the pallet to define an opening adjacent outer feet.

Abstract: A bottle closing device for placing press-fit closures, such as crown corks, crown caps, and similar closures, on bottles or similar containers. The abstract of the disclosure is submitted herewith as required by 37 C.F.R. §1.72(b). As stated in 37 C.F.R. §1.72(b): A brief abstract of the technical disclosure in the specification must commence on a separate sheet, preferably following the claims, under the heading “Abstract of the Disclosure.” The purpose of the abstract is to enable the Patent and Trademark Office and the public generally to determine quickly from a cursory inspection the nature and gist of the technical disclosure. The abstract shall not be used for interpreting the scope of the claims. Therefore, any statements made relating to the abstract are not intended to limit the claims in any manner and should not be interpreted as limiting the claims in any manner.

Abstract: The present invention relates to a method for filling a fluid into a container without using measuring means and to a filling apparatus therefor which comprises an attachment having a predetermined volume VA, said attachment comprising a valve attachment which has a gas valve and a liquid valve with a valve seat in a housing. Said valve seat surrounds a displacement element that can be moved along the longitudinal axis relative to the housing, and forms an annular gap. According to said method, the attachment is tightly placed onto a container (1) while the displacement element is inserted into the container (1). When the liquid valve (5) is opened, the filling fluid flows into the nominal volume VN of the container (1), and said nominal volume is flooded with the filling fluid; the liquid valve is then closed.

Abstract: In a carbonated drink filling method, a preform is continuously transferred and introduced into a heating furnace, heated to a temperature for molding the preform into a container, molded into the container in a molding die after the preform exits the heating furnace, conveyed in an upright position during which a coolant (F) is injected to a bottom of the container to cool the bottom. The container is filled with a carbonated drink (a) through a mouth portion of the container, and the mouth portion is then sealed. The coolant is injected in the cooling to the bottom of the container from a nozzle opening on either or both sides of a conveyance line of the container, and the nozzle opening is directed diagonally upward to the bottom of the container in such a manner that an extension of the nozzle opening intersects with the conveyance line of the container.

Abstract: A dispense head is removably joined to a bottle, such as a wine bottle, by having a hollow cylinder extend into the bottle and on one end sealed to a neck of the bottle with gasket means for sealing the bottle in a gas tight manner and supporting the bottle, allowing the bottle to hang from the dispense head. In one embodiment a set of annular gaskets of different diameters may be provided for bottles of different neck sizes.

Abstract: A valve for dispensing a liquid includes a housing, an internal liquid passage extending through the housing, a valve seat, a valve member movable between a closed position engaging the valve seat and an open position disengaging the valve seat, and a control member controlling movement of the valve member, which is movable between a first position in which it engages the valve member in its closed position, a second position in which the valve member is in its open position but still engaging the control member and a third position in which the valve member is in its open position and out of engagement with the control member. At least one air passage connects the outside of the valve with the internal liquid passage. The at least one air passage is closed in the first and second positions of the control member and is opened in the third position.

Abstract: A post-mix beverage dispenser utilizing a beverage dispensing valve including a movable valve activation device is provided. The beverage dispensing valve can move the valve activation device to a predetermined activation position to dispense a fluid in response to a control signal.

Abstract: A system and method to supply nitrogen gas is provided. Ambient air is compressed and stored in a storage receiver and then nitrogen is separated from the compressed air in a nitrogen membrane separation unit. The separated nitrogen is stored in a nitrogen storage tank under pressure and released through a pressure control valve. The system is confined to a small footprint and is useful as a nitrogen source where conventional compressed nitrogen tanks are a safety or space issue. Systems to prepare nitrogen infused beverages are also provided.

Abstract: In a method for distribution and dispensing of beverages, a one-way system is used including a disposable and freestanding container blow moulded in one piece from a preform of plastics, and a tube structure having a tube to be inserted in the container and a closure cap. The thin-walled container is filled with beverage by means of the tube and then closed by the closure cap. This filled unit is distributed to the end user and connected to standard beverage dispensing means. After use, the empty container is collapsed and discarded along with the tube structure which also is made of plastics.

Abstract: The monitoring system includes a system for indentifying the beer keg to a user which fills the keg and for identifying the date on which the beer keg is filled. A sensor system is attachable to or built into the beer keg, including at least one of the following sensors: a temperature sensor for the beer, a volume sensor for the beer present in the keg and a location sensor for the keg. A communication system transmits the sensor information to a remote data center for the user.

Abstract: Disclosed herein is a refrigerator and a control method thereof. The refrigerator includes a purified water tank to store water, a flow sensor to detect an amount of water supplied to the purified water tank, a purified water supply valve to open/close a purified water supply flow path to guide water stored in the purified water tank to the carbonated water tank, a carbonated water discharge valve to open/close a carbonated water discharge flow path to guide the carbonated water to the outside of the refrigerator, and a controller to detect a position where water leakage occurs by sequentially opening the purified water supply valve and the carbonated water discharge valve in a water leakage mode.

Abstract: The present disclosure relates to a refillable device. The refillable device includes a liquid chamber in the refillable device, a connection end, a sealing component arranged in the connection end, and a rotating mechanism. The liquid chamber is configured for storing tobacco liquid. The connection end is configured for connecting with an open end of a liquid injecting container. The sealing component defines a liquid inlet. The rotating mechanism tightly abuts against the sealing component. The rotating mechanism is rotatable between a first position where the liquid inlet is opened, and a second position where the liquid inlet is sealed.

Abstract: A locking headplate for an adjustable saddle tree includes opposed, hingedly connected plates for securing to a saddle tree head portion and a rotatable displacing element for displacing the hingedly connected plates inwardly or outwardly, wherein the rotatable displacing element assists in retaining the hingedly connected plates in a set spaced-apart configuration when not being rotated. The locking headplate further includes at least one supplemental locking mechanism for selectively preventing rotation of the rotatable displacing element. The locking headplate further includes a supplemental motion restrictor for restricting outward motion of the opposed hingedly connected plates to a desired range of motion. Saddle trees and saddles incorporating the locking headplate are provided.

Abstract: A safety stirrup for horse riding has a buckle (1) designed to be attached to a stirrup leather, a stirrup having an overall arch shape in which a rider inserts a foot in an insertion direction substantially perpendicular to the plane containing the arch, with a tread on the lower portion onto which a rider can place his foot, and at least one lateral branch (21, 22) linking said tread to a head (23) of the stirrup, and a device for attaching the head (23) of the stirrup to the buckle (1) that is designed to enable the stirrup to detach completely from the buckle (1) in the event of a fall.

Abstract: According to an embodiment, a method of forming a MEMS transducer includes forming a transducer frame in a layer of monocrystalline silicon, where forming the transducer frame includes forming a support portion adjacent a cavity and forming a first set of comb-fingers extending from the support portion. The method of forming a MEMS transducer further includes forming a spring support from an anchor to the support portion and forming a second set of comb-fingers in the layer of monocrystalline silicon. The second set of comb-fingers is interdigitated with the first set of comb-fingers.

Abstract: A device with an out-of-plane electrode includes a device layer positioned above a handle layer, a first electrode defined within the device layer, a cap layer having a first cap layer portion spaced apart from an upper surface of the device layer by a gap, and having an etch stop perimeter defining portion defining a lateral edge of the gap, and an out-of-plane electrode defined within the first cap layer portion by a spacer.

Abstract: Embodiments of the present invention provide an MEMS actuator with a substrate, at least one post attached to the substrate and a deflectable actuator body that is connected to the at least one post via at least one spring, wherein, during electrostatic, electromagnetic or magnetic force application, the actuator body takes a second position starting from a first position by a tilt-free translational movement, wherein the first position and the second position are different, and wherein in a top view of the MEMS actuator the actuator body is arranged outside an area spanned by the at least one post.

Abstract: An optical device formed of a mirror wafer, a cap wafer, and a glass wafer. The mirror wafer includes a first layer of electrically conductive material, a second layer of electrically conductive material, and a third layer of electrically insulating material between the first layer and the second layer. A mirror element is formed of the second layer of the mirror wafer, and has a reflective surface in the bottom of a cavity opened into at least the first layer. A good optical quality planar glass wafer can be used to enclose the mirror element when the mirror wafer, cap wafer, and glass wafer are bonded to each other.

Abstract: A method for forming a microelectromechanical device may provide forming a first layer at least one of in or over a semiconductor carrier; forming a second layer at least one of in or over at least a central region of the first layer, such that a peripheral region of the first layer is at least partially free of the second layer; removing material under at least a central region of the second layer to release at least one of the central region of the second layer or a central region of the first layer; and/or removing material under at least the peripheral region of the first layer to such that the second layer is supported by the semiconductor carrier via the first layer.

Abstract: MEMS device for low resistance applications are disclosed. In a first aspect, the MEMS device comprises a MEMS wafer including a handle wafer with one or more cavities containing a first surface and a second surface and an insulating layer deposited on the second surface of the handle wafer. The MEMS device also includes a device layer having a third and fourth surface, the third surface bonded to the insulating layer of the second surface of handle wafer; and a metal conductive layer on the fourth surface. The MEMS device also includes CMOS wafer bonded to the MEMS wafer. The CMOS wafer includes at least one metal electrode, such that an electrical connection is formed between the at least one metal electrode and at least a portion of the metal conductive layer.

Abstract: A method of manufacturing a semiconductor structure includes receiving a first substrate including a dielectric layer disposed over the first substrate; forming a sensing structure and a bonding structure over the dielectric layer; disposing a conductive layer on the sensing structure; disposing a barrier layer over the dielectric layer; removing a first portion of the barrier layer to at least partially expose the conductive layer on the sensing structure; and removing a second portion of the barrier layer to at least partially expose the bonding structure.

Abstract: A semiconductor structure includes a first substrate including a cavity extended into the first substrate, a device disposed within the cavity, a first dielectric layer disposed over the first substrate and a first conductive structure surrounded by the first dielectric layer, and a second substrate including a second dielectric layer disposed over the second substrate and a second conductive structure surrounded by the second dielectric layer, wherein the first conductive structure is bonded with the second conductive structure and the first dielectric layer is bonded with the second dielectric layer to seal the cavity.

Abstract: A semiconductor device has a first semiconductor die and a modular interconnect structure adjacent to the first semiconductor die. An encapsulant is deposited over the first semiconductor die and modular interconnect structure as a reconstituted panel. An interconnect structure is formed over the first semiconductor die and modular interconnect structure. An active area of the first semiconductor die remains devoid of the interconnect structure. A second semiconductor die is mounted over the first semiconductor die with an active surface of the second semiconductor die oriented toward an active surface of the first semiconductor die. The reconstituted panel is singulated before or after mounting the second semiconductor die. The first or second semiconductor die includes a microelectromechanical system (MEMS). The second semiconductor die includes an encapsulant and an interconnect structure formed over the second semiconductor die.

Abstract: A microelectromechanical systems (MEMS) package with high gettering efficiency is provided. A MEMS device is arranged over a logic chip, within a cavity that is hermetically sealed. A sensing electrode is arranged within the cavity, between the MEMS device and the logic chip. The sensing electrode is electrically coupled to the logic chip and is a conductive getter material configured to remove gas molecules from the cavity. A method for manufacturing the MEMS package is also provided.

Abstract: A MEMS device package assembly for encapsulating one or more internal components includes a first MEMS device package. The first package includes a cover and a substrate attached to the cover by any suitable methods of attachment. A corrugated structure is formed on at least one of an inner or outer wall of the cover. The assembly further includes a second MEMS device package having a cover, a substrate, and a corrugated structured formed on at least one of an inner or outer wall of the cover. The first and second MEMS device packages may be coupled to the same substrate or different substrate. In another embodiment, the first MEMS device package may be mounted on the second MEMS device package. In yet another embodiment, the first MEMS device package may be contained in the second MEMS device package.

Abstract: A microelectromechanical device includes: a body accommodating a microelectromechanical structure; and a cap bonded to the body and electrically coupled to the microelectromechanical structure through conductive bonding regions. The cap including a selection module, which has first selection terminals coupled to the microelectromechanical structure, second selection terminals, and at least one control terminal, and which can be controlled through the control terminal to couple the second selection terminals to respective first selection terminals according, selectively, to one of a plurality of coupling configurations corresponding to respective operating conditions.

Abstract: A Microelectromechanical systems (MEMS) structure comprises a MEMS wafer. A MEMS wafer includes a handle wafer with cavities bonded to a device wafer through a dielectric layer disposed between the handle and device wafers. The MEMS wafer also includes a moveable portion of the device wafer suspended over a cavity in the handle wafer. Four methods are described to create two or more enclosures having multiple gas pressure or compositions on a single substrate including, each enclosure containing a moveable portion. The methods include: A. Forming a secondary sealed enclosure, B. Creating multiple ambient enclosures during wafer bonding, C. Creating and breaching an internal gas reservoir, and D. Forming and subsequently sealing a controlled leak/breach into the enclosure.

Abstract: A MEMS apparatus with dynamic displacement control includes a MEMS parallel plate capacitor integrated with one or more memristors in a series configuration wherein a displacement is observable as a function of memristance, such that an upper electrode position is capable of being interpreted in a form of a resistance rather than a capacitance. The current is limited by said MEMS parallel plate capacitor restricting a change in the resistance of the memristor(s). The memristor(s) can be employed in some embodiments a sensor element to improve a MEMS operation range.

Abstract: An apparatus includes a cavity within a substrate. A MEMS structure is within the cavity, wherein the cavity includes the MEMS structure. A trench is connected to the cavity, wherein the trench is not directly opposite the MEMS structure. An oxide layer lines the trench and the cavity. A seal layer seals the trench and traps a predetermined pressure within the cavity and the trench.

Abstract: A MEMS sensor has at least a movable element designed to oscillate at an oscillation frequency, and an integrated measuring system coupled to the movable element to provide a measure of the oscillation frequency. The measuring system has a light source to emit a light beam towards the movable element and a light detector to receive the light beam reflected back from the movable element, including a semiconductor photodiode array. In particular, the light detector is an integrated photomultiplier having an array of single photon avalanche diodes.

Abstract: Provided herein is a method including forming a cavity in a first side of a first silicon wafer. An oxide layer is formed on the first side and in the cavity. The first side of the first silicon wafer is bonded to a first side of a second silicon wafer, and a gap control structure is deposited on a second side of the second silicon wafer. A MEMS structure is formed in the second silicon wafer. The second side of the second silicon wafer is eutecticly bonded to the third silicon wafer, and the eutectic bonding includes pressing the second silicon wafer to the third silicon wafer.