mhurhangee/ep-ind-claims huggingface dataset:
A method for generating synchronization channels in a wireless communication system, the method comprising: generating a set of primary synchronization channel, P-SCH, sequences, wherein each element in the set of P-SCH sequences is identified with a sector index; generating an association among the generated set of primary synchronization sequences and a set of scrambling codes, wherein the association among the generated set of P-SCH sequences and the set of scrambling codes is a one-to-one relationship; generating a set of secondary synchronization channel sequences, S-SCH, wherein the set of S-SCH sequences comprises an M-sequence; and scrambling each element in the set of S-SCH sequences with the set of scrambling codes. generating a set of primary synchronization channel, P-SCH, sequences, wherein each element in the set of P-SCH sequences is identified with a sector index; generating an association among the generated set of primary synchronization sequences and a set of scrambling codes, wherein the association among the generated set of P-SCH sequences and the set of scrambling codes is a one-to-one relationship; generating a set of secondary synchronization channel sequences, S-SCH, wherein the set of S-SCH sequences comprises an M-sequence; and scrambling each element in the set of S-SCH sequences with the set of scrambling codes.
A measuring assembly for measuring a temperature and a voltage, comprising: - a contact element comprising a temperature sensing means and an electrically conductive portion; - a voltage measurement conductor which is electrically connected to the conductive portion of the contact element; characterized in that, the assembly further comprises an electrically conductive fixation element being a fixation clip, which is electrically connected to the conductive portion of the contact element, wherein the fixation element is adapted such that it extends through a fixation hole of a busbar in a fixed state and connects to the busbar by an elastic force provided by the fixation element in the fixed state; and wherein the fixation element being the fixation clip is adapted such that, in the fixed state, it presses the contact element to a measuring surface of the busbar by an elastic force provided by the fixation element in the fixed state. - a contact element comprising a temperature sensing means and an electrically conductive portion; - a voltage measurement conductor which is electrically connected to the conductive portion of the contact element; the assembly further comprises an electrically conductive fixation element being a fixation clip, which is electrically connected to the conductive portion of the contact element, wherein the fixation element is adapted such that it extends through a fixation hole of a busbar in a fixed state and connects to the busbar by an elastic force provided by the fixation element in the fixed state; and wherein the fixation element being the fixation clip is adapted such that, in the fixed state, it presses the contact element to a measuring surface of the busbar by an elastic force provided by the fixation element in the fixed state.
An ice-making device, comprising: a plurality of ice-making trays arranged up and down and a rotating mechanism, wherein said plurality of ice making trays comprises an upper ice-making tray and a lower ice-making tray, and wherein the rotating mechanism is capable of rotating the plurality of ice-making trays between an ice making position where liquid can be stored and an ice release position where formed ice is released and dropped, wherein a cover is provided at an upper portion of the lower ice-making tray, characterized in that the cover guides the ice falling from the upper ice-making tray to fall on a side of the lower ice-making tray, wherein the cover has a curved surface to separate the upper ice-making tray and the lower ice-making tray, wherein the ice-making device is configured so, that the ice falling from the upper ice-making tray moves along the curved surface of the cover and falls from the side of the ice-making device into a storage container provided below the ice-making device.
Process for manufacturing a fuel cell stack, comprising steps of: - securely fastening a reinforcement, comprising an aperture in its median portion, to a proton exchange membrane and to an electrode placed against one face of the membrane, so that the internal border of the securely fastened reinforcement covers the periphery of the electrode and extends over the proton exchange membrane; - forming a recess on the periphery of a gas diffusion layer using a wet process for forming a watermark in the gas diffusion layer; and - placing the gas diffusion layer so that the recess is arranged plumb with the internal border of the reinforcement. - securely fastening a reinforcement, comprising an aperture in its median portion, to a proton exchange membrane and to an electrode placed against one face of the membrane, so that the internal border of the securely fastened reinforcement covers the periphery of the electrode and extends over the proton exchange membrane; - forming a recess on the periphery of a gas diffusion layer using a wet process for forming a watermark in the gas diffusion layer; and - placing the gas diffusion layer so that the recess is arranged plumb with the internal border of the reinforcement.
A seal unit (100, 200, 300) comprising a radial seal lip which is configured, in use, to bear against a counterface and retain a lubricant at an oil side of the seal, wherein the seal unit is provided with one or more sensors (140, 340) comprising: a first acoustic wave device (150, 155, 340) with: - an input transducer for generating a mechanical acoustic wave on or through a piezoelectric substrate (160, 160', 360); and - an output transducer for detecting the mechanical acoustic wave and generating a first output signal dependent on a wave propagation between the input and output transducers (365, 370), characterized in that the seal unit further comprises: - a second acoustic wave device (150, 155) which generates a second output signal that is essentially identical to the first output signal when the first and second devices are subjected to the same conditions, wherein one of the first and second acoustic wave devices (150, 155, 340) is hermetically sealed and the other of the first and second devices (150, 155, 340) is exposed to the environment. a first acoustic wave device (150, 155, 340) with: - an input transducer for generating a mechanical acoustic wave on or through a piezoelectric substrate (160, 160', 360); and - an output transducer for detecting the mechanical acoustic wave and generating a first output signal dependent on a wave propagation between the input and output transducers (365, 370), - an input transducer for generating a mechanical acoustic wave on or through a piezoelectric substrate (160, 160', 360); and - an output transducer for detecting the mechanical acoustic wave and generating a first output signal dependent on a wave propagation between the input and output transducers (365, 370), characterized in that the seal unit further comprises: - a second acoustic wave device (150, 155) which generates a second output signal that is essentially identical to the first output signal when the first and second devices are subjected to the same conditions, wherein one of the first and second acoustic wave devices (150, 155, 340) is hermetically sealed and the other of the first and second devices (150, 155, 340) is exposed to the environment. - a second acoustic wave device (150, 155) which generates a second output signal that is essentially identical to the first output signal when the first and second devices are subjected to the same conditions, wherein one of the first and second acoustic wave devices (150, 155, 340) is hermetically sealed and the other of the first and second devices (150, 155, 340) is exposed to the environment.
A coating composition for resins comprising alkoxysilane having a UV-absorbing functional group, colloidal particles of silicon oxide, multifunctional alkoxysilane and/or partial hydrolytic condensate thereof, and phosphoric acid. alkoxysilane having a UV-absorbing functional group, colloidal particles of silicon oxide, multifunctional alkoxysilane and/or partial hydrolytic condensate thereof, and phosphoric acid.
A system for cooling the brain with compressed gas, comprising: a supply of a compressed breathable gas for thermal transfer with tissues in a patient's head, said gas provided in at least one canister initially at a first pressure greater than atmospheric pressure; a mask for fitting over a patient's face to cover at least the patient's nose and eyes, said mask having a regulator fitted thereto; a high-pressure delivery tube connecting said at least one canister with said regulator, said delivery tube configured such that gas traveling along said delivery tube remains at approximately the same temperature along said tube, wherein said system is configured so that gas is cooled adiabatically by passage through the regulator to a first temperature below room temperature, and said gas output from the regulator flows into said mask at approximately the first temperature to cool tissues adjacent the brain cavity. a supply of a compressed breathable gas for thermal transfer with tissues in a patient's head, said gas provided in at least one canister initially at a first pressure greater than atmospheric pressure; a mask for fitting over a patient's face to cover at least the patient's nose and eyes, said mask having a regulator fitted thereto; a high-pressure delivery tube connecting said at least one canister with said regulator, said delivery tube configured such that gas traveling along said delivery tube remains at approximately the same temperature along said tube, wherein said system is configured so that gas is cooled adiabatically by passage through the regulator to a first temperature below room temperature, and said gas output from the regulator flows into said mask at approximately the first temperature to cool tissues adjacent the brain cavity.
A method for implementing a color ring user self-serving service over IP utilizing a Bearer Independent Call Control, BICC, protocol, comprising the following steps of: 1) user equipment initiating a self-serving service call to a core network device; 2) the core network device receiving the self-serving service call, analyzing information of the self-serving service call, and setting up a connection with a color ring service system; 3) triggering the self-serving service on the color ring service system, executing a media negotiation process with the core network device, and sending a self-serving service prompt tone to the user equipment via the core network device; 4) the user equipment receiving the self-serving service prompt tone, executing service operation, and sending content of the service operation to the color ring service system via the core network device; 5) the color ring service system receiving and processing the content of the service operation; 6) the user equipment hanging up; and 7) the core network device releasing the connection with the color ring service system; wherein the core network device comprises a Mobile Switching Center, MSC, server and a media gateway, MGW; the color ring service system comprises a color ring service server and a media server; the MSC server communicate with the color ring service server utilizing the BICC protocol via a Nc interface; and the step of executing the media negotiation process with the core network device comprises a negotiation of a stream encoding mode and rate (28,29) between the MGW and the media server utilizing Iu User Plan protocol via a Nb interface. 1) user equipment initiating a self-serving service call to a core network device; 2) the core network device receiving the self-serving service call, analyzing information of the self-serving service call, and setting up a connection with a color ring service system; 3) triggering the self-serving service on the color ring service system, executing a media negotiation process with the core network device, and sending a self-serving service prompt tone to the user equipment via the core network device; 4) the user equipment receiving the self-serving service prompt tone, executing service operation, and sending content of the service operation to the color ring service system via the core network device; 5) the color ring service system receiving and processing the content of the service operation; 6) the user equipment hanging up; and 7) the core network device releasing the connection with the color ring service system;
A method of recording a flow rate change history and identifying an appliance, comprising the steps of: measuring a flow rate at a given time interval; computing a difference value between the measured flow rates at the given time interval; converting the computed difference value into a code with reference to a flow rate class table by which classes of difference values corresponding to a size of the difference value and codes representing the classes are associated with each other; generating a flow rate change history based on a set of the codes of a predetermined time period, wherein the classes in the flow rate class table are grouped into four events of an area where it is determined that the flow rate is zero, an area where it is determined that the flow rate is stable, an area where it is determined that the flow rate increases, and an area where it is determined that the flow rate decreases; comparing the generated flow rate change history with flow rate history information proper to each appliance stored for each appliance; and identifying an appliance in use from similarity between the generated flow rate change history information and the stored flow rate change history information. measuring a flow rate at a given time interval; computing a difference value between the measured flow rates at the given time interval; converting the computed difference value into a code with reference to a flow rate class table by which classes of difference values corresponding to a size of the difference value and codes representing the classes are associated with each other; generating a flow rate change history based on a set of the codes of a predetermined time period, wherein the classes in the flow rate class table are grouped into four events of an area where it is determined that the flow rate is zero, an area where it is determined that the flow rate is stable, an area where it is determined that the flow rate increases, and an area where it is determined that the flow rate decreases; comparing the generated flow rate change history with flow rate history information proper to each appliance stored for each appliance; and identifying an appliance in use from similarity between the generated flow rate change history information and the stored flow rate change history information.
Topical use of a combination of serine with at least one further amino acid or amino acid derivative and with calcium L-lactate or its hydrate for increasing cellular uptake capacity of calcium in living cells of the epidermis expressed by having a greater abundance of junction proteins and a stronger binding of epidermal cells to each other where amino acid derivatives are selected from L-homoserine, pyruvate, alpha-ketoglutarate, glutamate or L-glutamate, glutamine, L-glutamine, and pyrrolidinone-5-carboxylic acid and their isomeric forms.
A flexible tube comprising: a first polymer layer comprising a polyolefin having a density of less than 0.915 g/cc, an ethylene vinyl acetate copolymer, an ethylene/norbornene copolymer, a styrenic block copolymer, a styrene butadiene copolymer, or combination thereof having a total organics content of less than 12 μg/mL per USP 34, Chapter 643; and a second polymer layer adjacent to the first polymer layer, the second polymer layer comprising a polyolefin, a styrenic block copolymer, a blend thereof, or combination thereof, wherein the second polymer layer has a shore A durometer of less than about 65, the shore A durometer of the second polymer layer less than a shore A durometer of the first polymer layer. a first polymer layer comprising a polyolefin having a density of less than 0.915 g/cc, an ethylene vinyl acetate copolymer, an ethylene/norbornene copolymer, a styrenic block copolymer, a styrene butadiene copolymer, or combination thereof having a total organics content of less than 12 μg/mL per USP 34, Chapter 643; and a second polymer layer adjacent to the first polymer layer, the second polymer layer comprising a polyolefin, a styrenic block copolymer, a blend thereof, or combination thereof, wherein the second polymer layer has a shore A durometer of less than about 65, the shore A durometer of the second polymer layer less than a shore A durometer of the first polymer layer.
A pressure compensated pH sensor apparatus, comprising: a pH sensing component (101; 201; 301) comprising a pH sensing element carrier (212; 312) including a pH sensing element (213; 313) having a sensing portion that is exposed to a fluid source and to external environmental pressures when in use; a pressure chamber, a size and orientation of the pressure chamber being such that the pH sensing element (213; 313) is completely supported by the pressure chamber; a fluid material reservoir for containing a fluid material; a transfer port (104; 105) located between the fluid material reservoir and the pressure chamber that allows transfer of the fluid material between the pressure chamber and the fluid material reservoir; a pressure port connected to the fluid material reservoir, wherein the pressure port is exposed to the environment and transfers pressure from the environment outside the apparatus to the fluid material reservoir, thereby causing the fluid material to transfer to the fluid chamber and support the sensing portion, so that the pH sensing element (213; 313) is exposed to a same environmental pressure on both sides thereof; a diaphragm located between the pressure port and the pressure fluid material reservoir. a pH sensing component (101; 201; 301) comprising a pH sensing element carrier (212; 312) including a pH sensing element (213; 313) having a sensing portion that is exposed to a fluid source and to external environmental pressures when in use; a pressure chamber, a size and orientation of the pressure chamber being such that the pH sensing element (213; 313) is completely supported by the pressure chamber; a fluid material reservoir for containing a fluid material; a transfer port (104; 105) located between the fluid material reservoir and the pressure chamber that allows transfer of the fluid material between the pressure chamber and the fluid material reservoir; a pressure port connected to the fluid material reservoir, wherein the pressure port is exposed to the environment and transfers pressure from the environment outside the apparatus to the fluid material reservoir, thereby causing the fluid material to transfer to the fluid chamber and support the sensing portion, so that the pH sensing element (213; 313) is exposed to a same environmental pressure on both sides thereof; a diaphragm located between the pressure port and the pressure fluid material reservoir.
An anion exchange electrolyte membrane comprising: a base polymer comprising a polar group; and a graft chain comprising a structural unit represented by the following formula or:, where R 1 to R 6 are each independently a hydrogen atom or an alkyl group having 1 to 8 carbon atoms, a structure A 1 that forms a ring structure together with a nitrogen atom bonded thereto is a saturated carbon chain having 3 to 7 carbon atoms or a structure in which at least one of the carbon atoms of the saturated carbon chain is substituted by a hetero atom, and X 1 and X 2 are each independently a halide ion, a hydroxide ion, or an organic or inorganic acid anion, characterized in that the base polymer comprises polyvinyl alcohol resins or ethylene-vinyl alcohol copolymers, and the polar group is a hydroxyl group. a base polymer comprising a polar group; and a graft chain comprising a structural unit represented by the following formula or:, where R 1 to R 6 are each independently a hydrogen atom or an alkyl group having 1 to 8 carbon atoms, a structure A 1 that forms a ring structure together with a nitrogen atom bonded thereto is a saturated carbon chain having 3 to 7 carbon atoms or a structure in which at least one of the carbon atoms of the saturated carbon chain is substituted by a hetero atom, and X 1 and X 2 are each independently a halide ion, a hydroxide ion, or an organic or inorganic acid anion, characterized in that the base polymer comprises polyvinyl alcohol resins or ethylene-vinyl alcohol copolymers, and the polar group is a hydroxyl group.
An X-ray imaging apparatus comprising: an X-ray source; an input unit configured to receive distance information between the X-ray source and an X-ray detector; a reference light emitter configured to irradiate a light from the X-ray source to a direction in which the X-ray detector is placed; at least two auxiliary light emitters (1005, 1010, 1020, 1030) provided apart from the reference light emitter by first predetermined distances respectively and configured to irradiate a light to be overlapped with a light from the reference light emitter in second predetermined distances respectively; and a controller configured to: determine an auxiliary light emitter (1010, 1020, 1030) corresponding to the distance information among the at least two auxiliary light emitters (1010, 1020, 1030) based on the distance information; and control the reference light emitter and the determined auxiliary light emitter (1010, 1020, 1030) so that the reference light emitter and the determined auxiliary light emitter (1010, 1020, 1030) irradiate a light. an X-ray source; an input unit configured to receive distance information between the X-ray source and an X-ray detector; a reference light emitter configured to irradiate a light from the X-ray source to a direction in which the X-ray detector is placed; at least two auxiliary light emitters (1005, 1010, 1020, 1030) provided apart from the reference light emitter by first predetermined distances respectively and configured to irradiate a light to be overlapped with a light from the reference light emitter in second predetermined distances respectively; and a controller configured to: determine an auxiliary light emitter (1010, 1020, 1030) corresponding to the distance information among the at least two auxiliary light emitters (1010, 1020, 1030) based on the distance information; and control the reference light emitter and the determined auxiliary light emitter (1010, 1020, 1030) so that the reference light emitter and the determined auxiliary light emitter (1010, 1020, 1030) irradiate a light. determine an auxiliary light emitter (1010, 1020, 1030) corresponding to the distance information among the at least two auxiliary light emitters (1010, 1020, 1030) based on the distance information; and control the reference light emitter and the determined auxiliary light emitter (1010, 1020, 1030) so that the reference light emitter and the determined auxiliary light emitter (1010, 1020, 1030) irradiate a light.