Abstract: Protective headbands are disclosed. One protective headband has a padding layer that includes a pair of first portions extending in a first direction along a first axis, a second portion extending in the first direction and spaced from the first axis, and a pair of angled portions connecting between the pair of first portions and the second portion. Another protective headband has a padding layer that includes a pair of first arcuate portions, and a second arcuate portion extending between the pair of first arcuate portions, the second arcuate portion curving in a same direction as the pair of first arcuate portions.

Abstract: Oil supply system for an internal combustion engine (1), whereby an internal oil pan (2) is arranged in the internal combustion engine (1), whereby the oil supply system has an additional external oil reservoir (3) which is arranged outside the internal combustion engine compared to the internal oil pan (2) of the internal combustion engine (1), whereby a supply line (4) to be connected to the internal combustion engine (1) is provided, which leads to a filling opening (5) of the oil reservoir (3), and whereby a return line (6) to be connected to the internal combustion engine (1) is provided, through which oil (0) can be returned from the oil reservoir (3) to the internal combustion engine (1), whereby the return line (6) is connected to the oil reservoir (3) and whereby the oil reservoir (3) has at least one oil tank (7), whereby a removal opening (8) of the return line (6) is arranged near or in the base of the at least one oil tank (7).

Abstract: A method for setting up and/or calibrating a robot positioned in a work environment at an operation site, wherein a predetermined routine is carried out for the purposes of setting up and/or calibration. The method includes the steps of generating the routine for the robot at a simulation site distant from the operation site; after completing the generation of the routine, transmitting the routine to a control unit of the robot at the operation site; calling up the routine and remotely executing the routine at the operation site via a control center located remotely from the operation site; and, after the start of the generated routine, allowing the generated routine to automatically process without intervention by an operator at the operation site.

Abstract: Impact-resistant materials and pads are disclosed. An impact-resistant material includes a first elastomer layer having a first density, a second elastomer layer having a second density higher than the first density, a layer of high-tensile strength fibrous material, and a polymer layer. These layers are preferably be arranged in the order in which they are recited. These layers may also be included in an impact-resistant pad configured to be worn by a user. The first elastomer layer is positioned directly adjacent the user when the pad is worn by the user.

Abstract: Apparatuses and methods thereof for employing impact resistant materials, pads, and layers are disclosed. Aspects of the invention include, an impact resistant material including an elastomer material having a base layer and a plurality of raised portions extending upward from the base layer, wherein each of the plurality of raised portions has a top surface and at least three primary sides. Each of the at least three primary sides having a middle region positioned closer to a center of the respective raised portion than either end region of the respective primary side.

Abstract: Aspects of the present invention are directed to helmet padding systems. One helmet padding system includes a rigid shell and a spacing pad. The rigid shell is configured to cover a top of a user's head and be worn under a baseball cap. The rigid shell includes an opening formed in an area of the rigid shell opposite the front of the user's head when the rigid shell is worn on the user's head. The spacing pad is positioned within the rigid shell. The spacing pad includes a layer of elastomeric material. The helmet padding system may further include the baseball cap positioned overtop the rigid shell. The baseball cap has a cut-out in a rear portion thereof.

Abstract: A protective system includes a garment configured to be worn by a user. The garment includes a padding layer having at least one layer of elastomeric material and at least one layer of high tensile strength fibrous material. The padding layer also includes a plurality of openings formed in a surface thereof. The system may further include one or more load bars. Each of the load bars would extend along the surface of the padding layer between respective ones of the plurality of openings.

Abstract: A method for synchronizing data transmitted between at least one transmit terminal (TE) and a receive terminal (TR) via a transmission channel (CD) with unmanaged latency, comprising the steps: (a) in said or in each transmit terminal, generating at least one synchronization signal (SSYNC) having a known temporal relationship with the time of transmission of at least one data packet (SEEG) to be synchronized; (b) transmitting said or each data packet to be synchronized on said transmission channel with unmanaged latency, and said or each synchronization signal on an auxiliary transmission channel (CS) with managed latency; (c) in said receive terminal, receiving said or each data packet to be synchronized and said or each synchronization signal; and (d) synchronizing said or each data packet received by said receive terminal by means of said synchronization signal. Data acquisition device for carrying out such a method.

Abstract: Joint protectors are disclosed. One such joint protector includes a first pad having a first axis; a second pad having a second axis; a connector coupled to the first and second pads, wherein the connector is configured to attach the first and second pads to a user's limb such that the first pad is positioned on one side of the user's joint and the second pad is positioned on an opposite side of the user's joint. Furthermore, the joint protector is movable to be in a first state, wherein the first axis aligns with the second axis and the end of the first pad aligns with the end of the second pad, and to be in a second state, wherein the first axis is angled relative to the second axis and the end of the first pad is not aligned with the end of the second pad.

Abstract: Example systems and methods for treating workpieces are disclosed. In some examples, the system includes a treatment station positioned in a process chamber for treating the workpiece with fluid. The example system includes a handling device positioned in the process chamber. The example handling device includes a base positioned in the process chamber, a supporting arm coupled to the base and pivotable relative to the base about a first pivot axis, a pivoting arm coupled to the supporting arm and pivotable relative to the supporting arm about a second pivot axis, and a receptacle coupled to the pivoting arm and including a workpiece holder capable of picking up the workpiece from a workpiece feeder positioned outside of the process chamber. The example handling device is capable of moving the workpiece through an opening of the process chamber and into a treatment position at the treatment station.

Abstract: Aspects of the invention are directed to protective headgear. In accordance with one aspect of the present invention, a protective headgear system is disclosed. The protective headgear system includes an elongated pad having a width, a length greater than the width, and a pair of opposed longitudinal edges extending along the length of the elongated pad. The protective headgear system further includes a pair of side pads coupled to the elongated pad, each side pad having a half disk shape with a semicircular edge and a diameter edge; and a plurality of pockets, each pocket accommodating a respective one of the elongated pad and the pair of side pads therein.

Abstract: Apparatuses and methods thereof for employing impact resistant materials, pads, and layers are disclosed. Aspects of the invention include, an impact resistant material including an elastomer material having a base layer and a plurality of raised portions extending upward from the base layer, wherein each of the plurality of raised portions has a top surface and at least three primary sides. Each of the at least three primary sides having a middle region positioned closer to a center of the respective raised portion than either end region of the respective primary side.

Abstract: Joint protectors are disclosed. One such joint protector includes a first pad having a first axis; a second pad having a second axis; a connector coupled to the first and second pads, wherein the connector is configured to attach the first and second pads to a user's limb such that the first pad is positioned on one side of the user's joint and the second pad is positioned on an opposite side of the user's joint. Furthermore, the joint protector is movable to be in a first state, wherein the first axis aligns with the second axis and the end of the first pad aligns with the end of the second pad, and to be in a second state, wherein the first axis is angled relative to the second axis and the end of the first pad is not aligned with the end of the second pad.

Abstract: A method for setting up and/or calibrating a robot positioned in a work environment at an operation site, wherein a predetermined routine is carried out for the purposes of setting up and/or calibration. The method includes the steps of generating the routine for the robot at a simulation site distant from the operation site; after completing the generation of the routine, transmitting the routine to a control unit of the robot at the operation site; calling up the routine and remotely executing the routine at the operation site via a control center located remotely from the operation site; and, after the start of the generated routine, allowing the generated routine to automatically process without intervention by an operator at the operation site.

Abstract: A method of compression preprocessing of raw data ui(tN) of measurements of electrocorticographic signals (ECoG) evolving over time with the aid of electrodes disposed in direct contact with a cortex comprises an actual step of compression preprocessing in which each raw signal ui(tN) acquired by the observed electrode i is transformed into a preprocessed signal ?i (tN) equal to the difference between a first term and a second term and appropriate for a second entropy encoding step. The first term is equal to the raw signal acquired at the electrode i at the current instant tN, and the second term is a prediction function fi which depends on past raw signals observed in a near past at at least neighbour electrodes ?i(j) of the observed electrode or at most at neighbour electrodes ?i(j) of the observed electrode i and at the observed electrode.

Abstract: A waferstart process for integrated circuit fabrication includes entering order information from requested wafers into a computer through a data input interface of the computer. A container is provided including supplied wafers and having a machine-readable medium associated therewith. The machine-readable medium is encoded with wafer data pertaining to the supplied wafers. The wafer data is entered from the machine-readable medium associated with the container into the computer. The order information and the wafer data are compared within the computer to create a verified data set in the computer upon the computer determining that the supplied wafers in the container correspond to the requested wafers in the order information. The verified data set is stored in a storage medium within the computer. The supplied wafers are transferred from the container to a front opening unified pod after creating the verified data set.

Abstract: A waferstart process for integrated circuit fabrication includes entering order information from requested wafers into a computer through a data input interface of the computer. A container is provided including supplied wafers and having a machine-readable medium associated therewith. The machine-readable medium is encoded with wafer data pertaining to the supplied wafers. The wafer data is entered from the machine-readable medium associated with the container into the computer. The order information and the wafer data are compared within the computer to create a verified data set in the computer upon the computer determining that the supplied wafers in the container correspond to the requested wafers in the order information. The verified data set is stored in a storage medium within the computer. The supplied wafers are transferred from the container to a front opening unified pod after creating the verified data set.