mhurhangee/ep-ind-claims huggingface dataset:
An inventory control system for monitoring removal and replacement of tools stored in the system, the system comprising: a storage container including a plurality of storage locations for storing objects; a sensing device configured to detect presence or absence of tools in the storage locations; a display device; characterized by a data processor configured to: receive a tool list; determine whether each of the tools on the tool list is present in one of the storage locations; and cause the display device to display a list of users and locations for each of the tools that is not present. a storage container including a plurality of storage locations for storing objects; a sensing device configured to detect presence or absence of tools in the storage locations; a display device; characterized by a data processor configured to: receive a tool list; determine whether each of the tools on the tool list is present in one of the storage locations; and cause the display device to display a list of users and locations for each of the tools that is not present. receive a tool list; determine whether each of the tools on the tool list is present in one of the storage locations; and cause the display device to display a list of users and locations for each of the tools that is not present.
A mold apparatus, comprising: a cavity mold comprising a cavity mold plate formed with a cavity at a front surface thereof and provided with a heating means at an inner portion thereof, and a cooling plate formed with at least two or more divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f), which are brought into contact with or separated from a rear surface of the cavity mold plate, and provided with a first cooling means at an inner portion thereof; and a core mold configured to determine the cavity together with the cavity mold plate, wherein the first cooling means is provided in each of the divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f), characterised in that the divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f) are provided with different materials, wherein the divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f) have different thermal conductivities. a cavity mold comprising a cavity mold plate formed with a cavity at a front surface thereof and provided with a heating means at an inner portion thereof, and a cooling plate formed with at least two or more divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f), which are brought into contact with or separated from a rear surface of the cavity mold plate, and provided with a first cooling means at an inner portion thereof; and a core mold configured to determine the cavity together with the cavity mold plate, wherein the first cooling means is provided in each of the divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f), characterised in that the divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f) are provided with different materials, wherein the divided cooling plate parts (130a, 130b; 130c, 130d, 130e, 130f) have different thermal conductivities.
An apparatus for assisting in finger motion of a wearer, the apparatus comprising: a wearing part; a first cover extending from the wearing part to one side and for receiving a middle finger of the wearer; a first wire and a second wire configured to pull the first cover; a pulley around which the first wire and the second wire are wound; and a motor configured to rotate the pulley; a second cover extending from the wearing part to the one side and disposed adjacent to the first cover and for receiving index finger of the wearer; and a third cover extending from the wearing part to the one side and disposed adjacent to the second cover and for receiving a thumb of the wearer, wherein the first wire and the second wire are arranged from a first point of the first cover to a second point of the first cover along a direction in which the first cover extends, and characterized in that the apparatus further comprises a driving module comprising a bracket, the motor, and the pulley, and wherein the motor and the pulley are mounted on the bracket, and wherein the bracket is disposed on the main body of the wearing part between the second cover and the third cover. a wearing part; a first cover extending from the wearing part to one side and for receiving a middle finger of the wearer; a first wire and a second wire configured to pull the first cover; a pulley around which the first wire and the second wire are wound; and a motor configured to rotate the pulley; a second cover extending from the wearing part to the one side and disposed adjacent to the first cover and for receiving index finger of the wearer; and a third cover extending from the wearing part to the one side and disposed adjacent to the second cover and for receiving a thumb of the wearer, wherein the first wire and the second wire are arranged from a first point of the first cover to a second point of the first cover along a direction in which the first cover extends, and characterized in that the apparatus further comprises a driving module comprising a bracket, the motor, and the pulley, and wherein the motor and the pulley are mounted on the bracket, and wherein the bracket is disposed on the main body of the wearing part between the second cover and the third cover.
A treadmill comprising: - a frame equipped with two uprights which elongate in a longitudinal direction; - a belt looped on rotary rollers, forming a treadable surface; - at least two handles, each handle being connected to the corresponding upright and comprising a grip portion, accessible to the user, and a coupling portion, configured for allowing a coupling of the handle to a respective coupling portion of the upright, characterised in that it comprises a shape coupling between the coupling portion of each handle and the coupling portion of the respective upright, and two rapid lock and release mechanisms for manually coupling and removably uncoupling each handle relative to the respective upright. - a frame equipped with two uprights which elongate in a longitudinal direction; - a belt looped on rotary rollers, forming a treadable surface; - at least two handles, each handle being connected to the corresponding upright and comprising a grip portion, accessible to the user, and a coupling portion, configured for allowing a coupling of the handle to a respective coupling portion of the upright, characterised in that it comprises a shape coupling between the coupling portion of each handle and the coupling portion of the respective upright, and two rapid lock and release mechanisms for manually coupling and removably uncoupling each handle relative to the respective upright.
A system for controlling the energy balance of a property, comprising an exhaust air duct from the property to the control system, an outflow duct from the control system, an inflow duct to the control system, a supply air duct from the control system to the property, and a heat storage tank filled with liquid, wherein the control system comprises a compressor with a compressor circuit connectable to the heat storage tank, the compressor circuit including a first heat exchanger disposed between the exhaust air duct and the outflow duct and a second heat exchanger disposed between the inflow duct and the supply air duct, and a heat transfer device in the exhaust air flow for transferring heat to the supply air flow from the exhaust air flow, characterised in that the heat transfer device in the exhaust air flow is disposed downstream of heat exchanger and in the supply air flow upstream of heat exchanger, an additional heater is disposed in the supply air duct downstream of the second heat exchanger of the compressor circuit for adjusting the temperature of the supply air flow to be conveyed to the property.
A system on chip comprising: a first memory arranged to store a plurality of encryption keys; a second memory; a third memory arranged to store an encryption key setting value; and a CPU arranged to decrypt encrypted data which is stored in an external non-volatile memory using one of the plurality of encryption keys that corresponds to the encryption key setting value, to authenticate the decrypted data, to store the decrypted data in the second memory, and to perform a boot using said decrypted data stored in the second memory, wherein the CPU is arranged to change an address map of the first memory, if the decryption and authentication are successful, such that the second memory is controlled to be accessed instead of the first memory. a first memory arranged to store a plurality of encryption keys; a second memory; a third memory arranged to store an encryption key setting value; and a CPU arranged to decrypt encrypted data which is stored in an external non-volatile memory using one of the plurality of encryption keys that corresponds to the encryption key setting value, to authenticate the decrypted data, to store the decrypted data in the second memory, and to perform a boot using said decrypted data stored in the second memory, wherein the CPU is arranged to change an address map of the first memory, if the decryption and authentication are successful, such that the second memory is controlled to be accessed instead of the first memory.
A method for decoding an encoded audio stream representing a sampled audio signal to obtain a sequence of segments of coefficients being subsequent to each other in time and representing the sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions, comprising the steps of deriving a coding context for a currently decoded coefficient of a current segment based on a previously decoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and entropy decoding the current coefficient based on the coding context and the encoded audio stream, wherein the deriving comprises deriving the coding context per spectral band for the current coefficient, based on neighbouring spectral coefficients previously decoded in the previous segment and optionally in the present segment, wherein the entropy decoding comprises decoding a group index from the encoded audio stream based on a probability distribution derived from the coding context, wherein the group index represents a group of one or more codewords, and, based on a uniform probability distribution, decoding an element index from the encoded audio stream if the group index indicates a group comprising more than one codeword, and deriving a tuple of spectral coefficients of the current segment based on the group index and the element index, thereby obtaining the spectral domain representation in tuples of spectral coefficients, and wherein the entropy decoding is arithmetic decoding. deriving a coding context for a currently decoded coefficient of a current segment based on a previously decoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and entropy decoding the current coefficient based on the coding context and the encoded audio stream, wherein the deriving comprises deriving the coding context per spectral band for the current coefficient, based on neighbouring spectral coefficients previously decoded in the previous segment and optionally in the present segment, wherein the entropy decoding comprises decoding a group index from the encoded audio stream based on a probability distribution derived from the coding context, wherein the group index represents a group of one or more codewords, and, based on a uniform probability distribution, decoding an element index from the encoded audio stream if the group index indicates a group comprising more than one codeword, and deriving a tuple of spectral coefficients of the current segment based on the group index and the element index, thereby obtaining the spectral domain representation in tuples of spectral coefficients, and wherein the entropy decoding is arithmetic decoding.
A terminal device configured to communicate with a base station device in a dual connectivity, the terminal device comprising: a receiving unit configured to receive an uplink grant on a physical downlink control channel of a primary secondary cell of a secondary cell group; and a higher layer processing unit configured to store the uplink grant as a configured uplink grant, wherein the higher layer processing unit is configured to, in a case that an uplink transmission timing for a timing advance group including a primary cell of a master cell group, an uplink transmission timing for a secondary timing advance group of the secondary cell group, and an uplink transmission timing for a timing advance group including the primary secondary cell of the secondary cell group are configured, a difference between the uplink transmission timing for the timing advance group including the primary cell of the master cell group and the uplink transmission timing for the timing advance group including the primary secondary cell of the secondary cell group exceeds a maximum transmission timing difference, consider a timer of the timing advance group including the primary secondary cell of the secondary cell group as expired, and clear the configured uplink grant. a receiving unit configured to receive an uplink grant on a physical downlink control channel of a primary secondary cell of a secondary cell group; and a higher layer processing unit configured to store the uplink grant as a configured uplink grant, wherein the higher layer processing unit is configured to, in a case that an uplink transmission timing for a timing advance group including a primary cell of a master cell group, an uplink transmission timing for a secondary timing advance group of the secondary cell group, and an uplink transmission timing for a timing advance group including the primary secondary cell of the secondary cell group are configured, a difference between the uplink transmission timing for the timing advance group including the primary cell of the master cell group and the uplink transmission timing for the timing advance group including the primary secondary cell of the secondary cell group exceeds a maximum transmission timing difference, consider a timer of the timing advance group including the primary secondary cell of the secondary cell group as expired, and clear the configured uplink grant.
Process for the implementation, within the grooves of a tread for a tyre, a surface texture that is composed of protruding elements having the shape of a cylinder or triangular prism; said process being characterized in that it comprises an etching step, wherein a laser beam is applied directly onto a surface of the grooves of a vulcanized tread; said laser beam having: a power ranging from between 10 and 50 W, a frequency ranging from between 1 and 10 kHz, a resolution ranging from between 0.01 and 1 mm, and a scanning speed ranging from between 1 and 1000 mm/s.
Method for cutting through a shielding of a coaxial cable, wherein the coaxial cable comprises an inner conductor, an inner conductor insulation which surrounds the inner conductor, the shielding which surrounds the inner conductor insulation, and an outer insulation which surrounds the shielding, wherein a coaxial cable is provided, the outer insulation being removed from one end of the said coaxial cable so that a portion of the shielding is exposed, characterized by - inserting a heat-resistant sleeve between the exposed portion of the shielding and the inner conductor insulation, and - cutting through the shielding in the exposed portion of the shielding by means of a laser beam. - inserting a heat-resistant sleeve between the exposed portion of the shielding and the inner conductor insulation, and - cutting through the shielding in the exposed portion of the shielding by means of a laser beam.
A process comprising the steps of: reacting iron oxide particles or iron oxide hydroxide particles with a phosphorus compound in a solution thereof, which comprises using as iron raw materials the iron oxide particles or the iron oxide hydroxide particles having a BET specific surface area of not less than 50 m 2 /g, and conducting the reaction in a temperature range of 60 to 100°C, wherein a reaction concentration in the solution is in the range of 0.1 to 3.0 mol/L based on a concentration of iron therein, an amount of the phosphorus compound added as a raw material charged is 100 to 1000% in terms of mol% of phosphorus ions based on iron ions, and a pH value of the reaction solution is not more than 3, to produce ferric phosphate hydrate particles which have a sodium (Na) content of not more than 100 ppm, and a molar ratio of phosphorus to iron (phosphorus/iron) of 0.9 to 1.1; mixing the ferric phosphate hydrate particles with a lithium compound and an organic compound; and subjecting the resulting mixture to a heat treatment in an inert atmosphere or a reducing atmosphere at a temperature of 300 to 800°C, to produce olivine type lithium iron phosphate particles. reacting iron oxide particles or iron oxide hydroxide particles with a phosphorus compound in a solution thereof, which comprises using as iron raw materials the iron oxide particles or the iron oxide hydroxide particles having a BET specific surface area of not less than 50 m 2 /g, and conducting the reaction in a temperature range of 60 to 100°C, wherein a reaction concentration in the solution is in the range of 0.1 to 3.0 mol/L based on a concentration of iron therein, an amount of the phosphorus compound added as a raw material charged is 100 to 1000% in terms of mol% of phosphorus ions based on iron ions, and a pH value of the reaction solution is not more than 3, to produce ferric phosphate hydrate particles which have a sodium (Na) content of not more than 100 ppm, and a molar ratio of phosphorus to iron (phosphorus/iron) of 0.9 to 1.1; mixing the ferric phosphate hydrate particles with a lithium compound and an organic compound; and subjecting the resulting mixture to a heat treatment in an inert atmosphere or a reducing atmosphere at a temperature of 300 to 800°C, to produce olivine type lithium iron phosphate particles.
An assembly carriage configured to assemble a cartridge for an aerosol delivery device, the assembly carriage comprising: a platform; a first nest (606, 624) disposed on the platform and configured to receive a partially-assembled cartridge in a first orientation; and a second nest (608, 626) disposed on the platform and configured to receive the partially-assembled cartridge in a second orientation that differs from the first orientation. a platform; a first nest (606, 624) disposed on the platform and configured to receive a partially-assembled cartridge in a first orientation; and a second nest (608, 626) disposed on the platform and configured to receive the partially-assembled cartridge in a second orientation that differs from the first orientation.
A method for producing water absorbent polyacrylic acid (salt) resin powder, comprising the steps of: (i) polymerizing an acrylic acid (salt) monomer aqueous solution; (ii) during or after the step of (i), performing gel grinding of a hydrogel crosslinked polymer obtained by the polymerization so as to obtain a particulate hydrogel crosslinked polymer having a weight average particle diameter of 350 μm to 2000 μm and a logarithmic standard deviation (σζ) of the particle size distribution of 0.2 to 1.0, as determined by the method disclosed in the description; (iii) drying the particulate hydrogel crosslinked polymer by hot air of 150°C to 250°C at a velocity of 0.8 [m/s] to 2.5 [m/s] in a direction vertical to the particulate hydrogel crosslinked polymer by use of a through-flow belt drier, the particulate hydrogel crosslinked polymer to be supplied into the through-flow belt drier has a resin solid content of 10 wt% to 80 wt%, wherein the particulate hydrogel crosslinked polymer to be supplied into the through-flow belt drier in the step of (iii) has a temperature of 60°C to 110°C; and (iv) carrying out a surface treatment to a dried particulate hydrogel crosslinked polymer. (i) polymerizing an acrylic acid (salt) monomer aqueous solution; (ii) during or after the step of (i), performing gel grinding of a hydrogel crosslinked polymer obtained by the polymerization so as to obtain a particulate hydrogel crosslinked polymer having a weight average particle diameter of 350 μm to 2000 μm and a logarithmic standard deviation (σζ) of the particle size distribution of 0.2 to 1.0, as determined by the method disclosed in the description; (iii) drying the particulate hydrogel crosslinked polymer by hot air of 150°C to 250°C at a velocity of 0.8 [m/s] to 2.5 [m/s] in a direction vertical to the particulate hydrogel crosslinked polymer by use of a through-flow belt drier, the particulate hydrogel crosslinked polymer to be supplied into the through-flow belt drier has a resin solid content of 10 wt% to 80 wt%, wherein the particulate hydrogel crosslinked polymer to be supplied into the through-flow belt drier in the step of (iii) has a temperature of 60°C to 110°C; and (iv) carrying out a surface treatment to a dried particulate hydrogel crosslinked polymer.
Method for checking a detuning facility of an antenna coil of a magnetic resonance tomography unit, wherein the method comprises the steps: Activating the detuning facility of the antenna coil; Receiving a first receive signal with a receiver; Receiving a second receive signal with the receiver; Comparing the first receive signal with the second receive signal by means of a test controller; Outputting a warning signal if the result of the comparison does not match a predetermined relation for the first receive signal to the second receive signal, wherein the method has a step of deactivating the detuning facility, wherein the step of receiving the second receive signal takes place with the detuning facility switched off and in the step of comparing, a noise level of the first receive signal is compared with a noise level of the second receive signal, wherein the first and the second receive signal is in each case a high-frequency current and/or voltage signal which reaches the receiver in an analogue or digitised manner and has information relating to amplitude, phase and/or spectral distribution. Activating the detuning facility of the antenna coil; Receiving a first receive signal with a receiver; Receiving a second receive signal with the receiver; Comparing the first receive signal with the second receive signal by means of a test controller; Outputting a warning signal if the result of the comparison does not match a predetermined relation for the first receive signal to the second receive signal, wherein the method has a step of deactivating the detuning facility, wherein the step of receiving the second receive signal takes place with the detuning facility switched off and in the step of comparing, a noise level of the first receive signal is compared with a noise level of the second receive signal, wherein the first and the second receive signal is in each case a high-frequency current and/or voltage signal which reaches the receiver in an analogue or digitised manner and has information relating to amplitude, phase and/or spectral distribution.