mhurhangee/patent-ind-claim-en huggingface dataset:
An orthopedic device , comprising: a garment having a hip region arranged to circumferentially extend over a hip region of a user; a compression system having first and second tensioning devices secured to and arranged to extend from opposed sides of a posterior region of the garment toward the anterior region of the garment, the compression system arranged to produce compression over the posterior side of the garment , the compression system having first and second tensioning sets cooperating with the first and second tensioning devices , respectively, the first and second tensioning sets secured to first and second sides, respectively, located on opposed sides of the garment and oriented to extend toward another at the posterior side of the garment ; wherein the garment defines a pair of tights extending over the waist and at least the upper leg, the garment forms an elastic region located between the first and second tensioning sets and adapted to expand and contract depending on the amount of the compression produced by the first and second tensioning devices , the first and second tensioning sets are located on first and second inelastic segments of the garment, respectively, that are secured to the elastic region at the posterior side of the garment, the elastic region is located between the first and second inelastic segments . a garment having a hip region arranged to circumferentially extend over a hip region of a user; a compression system having first and second tensioning devices secured to and arranged to extend from opposed sides of a posterior region of the garment toward the anterior region of the garment, the compression system arranged to produce compression over the posterior side of the garment , the compression system having first and second tensioning sets cooperating with the first and second tensioning devices , respectively, the first and second tensioning sets secured to first and second sides, respectively, located on opposed sides of the garment and oriented to extend toward another at the posterior side of the garment ; wherein the garment defines a pair of tights extending over the waist and at least the upper leg, the garment forms an elastic region located between the first and second tensioning sets and adapted to expand and contract depending on the amount of the compression produced by the first and second tensioning devices , the first and second tensioning sets are located on first and second inelastic segments of the garment, respectively, that are secured to the elastic region at the posterior side of the garment, the elastic region is located between the first and second inelastic segments .
A method of operating a detection system , comprising: switching the system from a normal mode for sensing smoke to a high sensitivity mode for sensing airborne particles, such that in the high sensitivity mode the detection system is configured to discriminate between particles of diameters less than 2.5 micrometers and 10 micrometers; emitting light at a first wavelength from a first light source of the detection system into a monitored space and detecting an amount of light backscatter at the first wavelength at one or more light sensing devices of the detection system, wherein the first wavelength is characteristic of infrared light; emitting light at a second wavelength from a second light source of the detection system into the monitored space and detecting an amount of light backscatter at the second wavelength at the one or more light sensing devices of the detection system, wherein the second wavelength is characteristic of visible blue light; and determining a particulate particle size via a ratio of the amount of light backscatter at the first wavelength to the amount of light backscatter at the second wavelength. switching the system from a normal mode for sensing smoke to a high sensitivity mode for sensing airborne particles, such that in the high sensitivity mode the detection system is configured to discriminate between particles of diameters less than 2.5 micrometers and 10 micrometers; emitting light at a first wavelength from a first light source of the detection system into a monitored space and detecting an amount of light backscatter at the first wavelength at one or more light sensing devices of the detection system, wherein the first wavelength is characteristic of infrared light; emitting light at a second wavelength from a second light source of the detection system into the monitored space and detecting an amount of light backscatter at the second wavelength at the one or more light sensing devices of the detection system, wherein the second wavelength is characteristic of visible blue light; and determining a particulate particle size via a ratio of the amount of light backscatter at the first wavelength to the amount of light backscatter at the second wavelength.
A battery temperature estimation apparatus for estimating temperature of a secondary battery included in a battery pack (P), the battery pack (P) further includes the battery temperature estimation apparatus, a plurality of sensing busbars and an integrated circuit board (I) electrically connected to respective electrode lead of the secondary battery through the plurality of sensing busbars , the battery temperature estimation apparatus comprising: a board temperature measuring unit mounted on the integrated circuit board (I) to measure a board temperature of the integrated circuit board (I); an ambient temperature measuring unit configured to measure an ambient temperature of the battery pack (P); and a calculating unit configured to calculate a temperature of the secondary battery using the board temperature of the integrated circuit board measured by the board temperature measuring unit and the ambient temperature of the battery pack, characterized in that the calculating unit calculate the temperature of the secondary battery by reflecting a correction factor corresponding to the ambient temperature of the battery pack on a difference between the temperature of the integrated circuit board and the ambient temperature of the battery pack a board temperature measuring unit mounted on the integrated circuit board (I) to measure a board temperature of the integrated circuit board (I); an ambient temperature measuring unit configured to measure an ambient temperature of the battery pack (P); and a calculating unit configured to calculate a temperature of the secondary battery using the board temperature of the integrated circuit board measured by the board temperature measuring unit and the ambient temperature of the battery pack, characterized in that the calculating unit calculate the temperature of the secondary battery by reflecting a correction factor corresponding to the ambient temperature of the battery pack on a difference between the temperature of the integrated circuit board and the ambient temperature of the battery pack
Apparatus for the transmission of signals from at least one housing opening of a housing which is at least partially metal with the aid of electromagnetic waves of at least a specific wave length, said apparatus comprising: - a cable gland arranged in the housing opening by means of which a cable to be guided can be fixed via a securing nut , - a transmission/reception unit arranged in the housing , designed to generate and receive the electromagnetic waves , - at least a primary antenna arranged in the housing for decoupling the electromagnetic waves generated by the transmission/reception unit and for coupling and transmitting the received electromagnetic waves to the transmission/reception unit , - a first secondary antenna designed to receive the electromagnetic waves decoupled by the primary antenna, wherein the first secondary antenna is arranged inside the housing , in the cable gland , in such a way that the first secondary antenna is oriented towards the interior of the housing, - a second secondary antenna designed to receive the electromagnetic waves emitted from the outside of the housing , wherein the second secondary antenna is arranged outside the housing , in the cable gland , in such a way that the second secondary antenna is oriented towards the outside of the housing, wherein a reflection point is arranged between the first and the second secondary antenna in such a way that a jump in impedance is produced between the first and the second secondary antenna , wherein the reflection point is designed either as an abrupt change in the diameter of the first antenna to the diameter of the second secondary antenna , or as a common, plate-shaped antenna base of the first and the second secondary antenna , and wherein the cable gland is at least partially filled with a dielectric filling material in such a way that the first and the second secondary antenna are maintained inside the cable gland by the filling material . - a cable gland arranged in the housing opening by means of which a cable to be guided can be fixed via a securing nut , - a transmission/reception unit arranged in the housing , designed to generate and receive the electromagnetic waves , - at least a primary antenna arranged in the housing for decoupling the electromagnetic waves generated by the transmission/reception unit and for coupling and transmitting the received electromagnetic waves to the transmission/reception unit , - a first secondary antenna designed to receive the electromagnetic waves decoupled by the primary antenna, wherein the first secondary antenna is arranged inside the housing , in the cable gland , in such a way that the first secondary antenna is oriented towards the interior of the housing, - a second secondary antenna designed to receive the electromagnetic waves emitted from the outside of the housing , wherein the second secondary antenna is arranged outside the housing , in the cable gland , in such a way that the second secondary antenna is oriented towards the outside of the housing,
A programmable integrated circuit comprising: one or more virtual function hardware accelerators for providing hardware acceleration for a plurality of virtual machines running on a host processor ; and a first circuit configured to receive service requests for said one or more virtual function hardware accelerators from said plurality of virtual machines ; a second circuit configured to receive data packets from an external data port ; and data switching circuitry that is coupled to the first circuit and the second circuit and configured to communicate directly with the one or more virtual function hardware accelerators ; wherein said first circuit has a virtual machine manager Quality of Service, VMM QoS, module configured to prioritize processing of service requests from at least one of said plurality of virtual machines in scheduling of the service requests; and said second circuit has a network ingress-egress QoS module configured to operate independently from the VMM QoS module , wherein the network ingress-egress QoS module is configured to determine the order in which said data packets are routed in the programmable integrated circuit . one or more virtual function hardware accelerators for providing hardware acceleration for a plurality of virtual machines running on a host processor ; and a first circuit configured to receive service requests for said one or more virtual function hardware accelerators from said plurality of virtual machines ; a second circuit configured to receive data packets from an external data port ; and data switching circuitry that is coupled to the first circuit and the second circuit and configured to communicate directly with the one or more virtual function hardware accelerators ; wherein said first circuit has a virtual machine manager Quality of Service, VMM QoS, module configured to prioritize processing of service requests from at least one of said plurality of virtual machines in scheduling of the service requests; and said second circuit has a network ingress-egress QoS module configured to operate independently from the VMM QoS module , wherein the network ingress-egress QoS module is configured to determine the order in which said data packets are routed in the programmable integrated circuit .
Apparatus for tensile testing of an optical fiber , wherein the apparatus comprises: a dual pulley with a first circumferential surface having a first diameter (D1) and with a second circumferential surface having a second diameter (D2) which is larger than the first diameter (D1), characterized by a first drive belt section contacting the first circumferential surface of the dual pulley and a second drive belt section contacting a second circumferential surface of the dual pulley, a fiber inlet which is delimited by the first circumferential surface and the first drive belt section contacting the first circumferential surface , a fiber outlet which is delimited by the second circumferential surface and the second drive belt section (3, 33 contacting the second circumferential surface , a guide passing the optical fiber from the fiber inlet to the fiber outlet , and one single drive unit which rotates the first drive belt section and the second drive belt section around belt pulleys side by side along their entire length. a dual pulley with a first circumferential surface having a first diameter (D1) and with a second circumferential surface having a second diameter (D2) which is larger than the first diameter (D1), characterized by a first drive belt section contacting the first circumferential surface of the dual pulley and a second drive belt section contacting a second circumferential surface of the dual pulley, a fiber inlet which is delimited by the first circumferential surface and the first drive belt section contacting the first circumferential surface , a fiber outlet which is delimited by the second circumferential surface and the second drive belt section (3, 33 contacting the second circumferential surface , a guide passing the optical fiber from the fiber inlet to the fiber outlet , and one single drive unit which rotates the first drive belt section and the second drive belt section around belt pulleys side by side along their entire length.
A microwave drying method of a honeycomb formed body , comprising: an introduction step of disposing the honeycomb formed body while keeping an axis direction (X) of cells of the honeycomb formed body vertically and introducing the honeycomb formed body into a drying furnace capable of irradiating with microwaves; a reflector placing step of placing a microwave reflector having a function to reflect the microwaves and including a reflecting face having a coverage factor to an area of an end face of the honeycomb formed body that is 15% to 30% so as to face an upper end face of the honeycomb formed body ; and a microwave drying step of irradiating the honeycomb formed body with the microwaves of 915 MHz in frequency from above to dry the honeycomb formed body ; characterized in that the microwave reflector has a flat-plate rectangular shape or a circular-plate shape and wherein in the microwave drying step, the honeycomb formed body is dried so that temperature during temperature rising of the honeycomb formed body is controlled by the microwave reflector so that temperature is higher at a center part of the upper end face than at a circumferential part of the honeycomb formed body , and so that in a cross section in a length direction including a barycenter (D1) of the honeycomb formed body , a temperature difference between at the barycenter (D1) and at the center part is 25°C or less. an introduction step of disposing the honeycomb formed body while keeping an axis direction (X) of cells of the honeycomb formed body vertically and introducing the honeycomb formed body into a drying furnace capable of irradiating with microwaves; a reflector placing step of placing a microwave reflector having a function to reflect the microwaves and including a reflecting face having a coverage factor to an area of an end face of the honeycomb formed body that is 15% to 30% so as to face an upper end face of the honeycomb formed body ; and a microwave drying step of irradiating the honeycomb formed body with the microwaves of 915 MHz in frequency from above to dry the honeycomb formed body ; characterized in that the microwave reflector has a flat-plate rectangular shape or a circular-plate shape and wherein in the microwave drying step, the honeycomb formed body is dried so that temperature during temperature rising of the honeycomb formed body is controlled by the microwave reflector so that temperature is higher at a center part of the upper end face than at a circumferential part of the honeycomb formed body , and so that in a cross section in a length direction including a barycenter (D1) of the honeycomb formed body , a temperature difference between at the barycenter (D1) and at the center part is 25°C or less.
Hydropneumatic device for pressure transmission with a displaceable working piston and a displaceable intensifier piston for transmitting pressure to the working piston , wherein a working stroke of the working piston in a working direction comprises a first stroke and a subsequent second stroke, wherein a pneumatic unit of the device is provided so that the first stroke can be controlled by pneumatic pressure of the working piston and the second stroke can be controlled by pneumatic pressure of the intensifier piston , and wherein hydraulic fluid is displaced by the intensifier piston and the displaced hydraulic fluid triggers the second stroke of the working piston , wherein a section of the intensifier piston is displaceable in a pneumatic chamber of the device in forwards direction and in backwards direction and a section of the intensifier piston divides the pneumatic chamber into a first stroke chamber and a second stroke chamber , wherein for resetting the intensifier piston a pneumatic valve of the pneumatic unit connected to the second stroke chamber is provided, wherein the pneumatic valve has an overflow cross-section which can be closed automatically by a first valve body between an input side of the pneumatic valve and an output side of the pneumatic valve such that the first valve body opens the overflow cross-section, when on the output side the gas pressure falls below a predefinable output pressure, so that over the overflow cross-section there is an overflow of gas volume at the input side towards the output side and when the output pressure is reached on the output side the first valve body closes the overflow cross-section again, and wherein the pneumatic valve has a venting cross-section which can be closed automatically by a second valve body between the output side of the pneumatic valve and a venting side such that the second valve body opens the venting cross-section, when on the output side the gas pressure rises above the predefinable initial pressure so that over the opened venting cross-section a gas volume is vented from the output side to the venting side, and when the initial pressure is reached on the output side the second valve body closes the venting cross-section again, characterised in that the pneumatic valve is designed such that the area of the venting cross-section is at least 30 percent of the area of the overflow cross-section, preferably at least 50 percent of the area of the overflow cross-section.
Battery charger having a battery holding housing and a battery device with a sealing device which is intended to close at least an electrics region at least in a dust-tight and/or water-tight manner, comprising a first electrical contact and at least a second electrical contact which are intended to transmit electrical operating energy and/or information, and comprising at least one water film separating means which is intended to prevent formation of a direct water film between the first contact and the at least one second contact in at least one operating state, characterized in that the water film separating means each delimit a drainage slot in such a way that water can drain out of a region between the contacts into the battery holding housing .
A vehicle having fail-safe internal data transfer, comprising: - a vehicle body ; - a wired data transfer network provided on the vehicle body ; and - network subscribers provided on the vehicle body , which are connected to one another via network nodes of the data transfer network , wherein the data transfer network has a data-transferring ring wiring , characterized in that a minimum area (MF) defined by the data-transferring ring wiring is larger than 20% of a maximum cross-sectional area (MQF) of the vehicle body . - a vehicle body ; - a wired data transfer network provided on the vehicle body ; and - network subscribers provided on the vehicle body , which are connected to one another via network nodes of the data transfer network , wherein the data transfer network has a data-transferring ring wiring ,
A method of making mold-in fastener products, the method comprising severing a layer of flexible barrier material on a surface of a longitudinally continuous hook tape having a flexible base and an array of discrete male touch fastener elements extending from a surface of the base, to form a pattern of patches of flexible barrier material spaced apart and surrounded by a continuous lattice of barrier material, with each of the patches and the lattice engaging male touch fastener elements , stripping the lattice from the surface of the base to expose male touch fastener elements in exposed regions of the base surrounding each patch of flexible barrier material, and severing the hook tape along the exposed regions of the base to form individual mold-in fastener products , each having a patch of flexible barrier material surrounded by an exposed base edge region carrying male touch fastener elements . severing a layer of flexible barrier material on a surface of a longitudinally continuous hook tape having a flexible base and an array of discrete male touch fastener elements extending from a surface of the base, to form a pattern of patches of flexible barrier material spaced apart and surrounded by a continuous lattice of barrier material, with each of the patches and the lattice engaging male touch fastener elements , stripping the lattice from the surface of the base to expose male touch fastener elements in exposed regions of the base surrounding each patch of flexible barrier material, and severing the hook tape along the exposed regions of the base to form individual mold-in fastener products , each having a patch of flexible barrier material surrounded by an exposed base edge region carrying male touch fastener elements .