Abstract: The invention discloses a comfortable restraint system located in a vehicle incorporating an electronic braking system governed by a control unit, and including a safety belt configured by a textile strap and a chamber attached longitudinally on each side of the textile strap, and also including a permanent anchoring device which in turn includes means for the coupling of an anchor tongue and a number of connector outlets for the supply and extraction of compressed air via a compression system, the chambers being connected to the connector outlets by means of adaptors, in such a way that they connect pneumatically to the compression system, which is governed by the vehicle control unit.

Abstract: This application relates to a system, method, and non-transitory computer readable medium for implementing a queuing platform. In some embodiments, a user request is received and it determined whether the user request matches predetermined criteria. Embodiments can include assigning the user request to an item queue and issuing a ticket. In further embodiments, the ticket is validated and an access token is transmitted to the user device based on the validation of the ticket. A checkout request corresponding to the at least one user request is received and validated. In some embodiments, the user request is transmitted from the item queue to a checkout engine to complete a purchase of the item based on the validation of the access token received in the checkout request.

Abstract: The invention discloses a comfortable restraint system located in a vehicle incorporating an electronic braking system governed by a control unit, and including a safety belt configured by a textile strap and a chamber attached longitudinally on each side of the textile strap, and also including a permanent anchoring device which in turn includes means for the coupling of an anchor tongue and a number of connector outlets for the supply and extraction of compressed air via a compression system, the chambers being connected to the connector outlets by means of adaptors, in such a way that they connect pneumatically to the compression system, which is governed by the vehicle control unit.

Abstract: A current-limiting circuit for limiting the magnitude of an alternating current. The circuit includes a coil unit and a capacitor unit, which are connected electrically in series, and a bypass device for electrically bridging the capacitor unit on occasion of an overcurrent. The bypass device has a first bypass branch and a second bypass branch connected electrically in parallel with the first bypass branch. A third bypass branch is connected electrically in parallel with a second bypass element of the second bypass branch.

Abstract: A current-limiting circuit for limiting the magnitude of an alternating current. The circuit includes a coil unit and a capacitor unit, which are connected electrically in series, and a bridging device for electrically bridging the capacitor unit on occasion of an overcurrent.

Abstract: The present invention relates to a metal-doped tin oxide which has a BET surface area of at least 30 m 2/g, and comprises at least one metal dopant which is Sb, Nb, Ta, Bi, W, or In, or any mixture thereof, wherein the metal dopant is present in an amount of from 2.5 at % to 25 at %, based on the total amount of tin and metal dopant atoms, and is in a mixed valence state containing atoms of oxidation state OS1 and atoms of oxidation state OS2, wherein the oxidation state OS1 is >0 and the oxidation state OS2 is >OS1 and the atomic ratio of the atoms of OS2 to the atoms of OS1 is from 1.5 to 12.0.

Abstract: The present invention relates to a metal-doped tin oxide which has a BET surface area of at least 30 m 2/g, and comprises at least one metal dopant which is Sb, Nb, Ta, Bi, W, or In, or any mixture thereof, wherein the metal dopant is present in an amount of from 2.5 at % to 25 at %, based on the total amount of tin and metal dopant atoms, and is in a mixed valence state containing atoms of oxidation state OS1 and atoms of oxidation state OS2, wherein the oxidation state OS1 is >0 and the oxidation state OS2 is >OS1 and the atomic ratio of the atoms of OS2 to the atoms of OS1 is from 1.5 to 12.0.

Abstract: The invention relates to a method and a device for the early detection of the presence of micro-organisms in food, particularly in milk and derivatives thereof. One of the main advantages of the invention lies in the fact that the aforementioned detection method can be performed inside the commercial packaging thereof without the need for said packaging to be opened. The presence of micro-organism is detected, before they can produce drastic changes in the physical properties of the product, according to changes in the propagation of elastic waves (velocity, attenuation and harmonic distortion) through the product and, moreover, different types of micro-organisms can be distinguished. The inventive detection method is performed under dry conditions and requires an environment with controlled humidity and temperature.

Abstract: The invention relates to a method and a device for the early detection of the presence of micro-organisms in food, particularly in milk and derivatives thereof. One of the main advantages of the invention lies in the fact that the aforementioned detection method can be performed inside the commercial packaging thereof without the need for said packaging to be opened. The presence of micro-organism is detected, before they can produce drastic changes in the physical properties of the product, according to changes in the propagation of elastic waves (velocity, attenuation and harmonic distortion) through the product and, moreover, different types of micro-organisms can be distinguished. The inventive detection method is performed under dry conditions and requires an environment with controlled humidity and temperature.

Abstract: The present invention involves a hysteretic comparator (100) for comparing a sample voltage (VOUT) to a reference voltage (VREF). A hysteresis voltage generator providing a voltage VHYST− and a voltage VHYST+. A first differential input stage (505) generates a signal coupled to a summing node (506, 507) determined from a difference between the sample voltage and VREF. A second differential input stage (504) generates a signal coupled to the summing node determined from a positive difference between VHYST− and VHYST+. A third differential input stage (503) generates a signal coupled to the summing node determined from a negative difference between VHYST− and VHYST+. A control device (512, 513, 514) coupled to selectively enable the second and third differential input stages to select among a first mode and second mode.