mhurhangee/ep-ind-claims huggingface dataset:
A process for forming lactose suitable for use in a pharmaceutical formulation, said process comprising: providing a plurality of unmilled lactose particles containing no more than 10% w/w of lactose particles having a volume average particle size of 70 microns or less, wherein said step of providing a plurality of lactose particles containing no more than 10% w/w of lactose particles having a volume average particle size of 70 microns or less comprises obtaining said plurality of lactose particles by classifying a source of lactose into two fractions comprising a fine fraction and said plurality of lactose particles containing no more than 10% w/w of lactose particles having a volume average particle size of 70 microns or less; milling the plurality of lactose particles to yield a plurality of milled lactose particles with an average particle size,, ranging from 50 microns to 100 microns; and classifying said plurality of milled lactose particles into at least two fractions comprising a fine fraction and a coarse fraction wherein the fine fraction has an average particle size,, ranging from 3 microns to 50 microns, and the coarse fraction has an average particle size,, ranging from 40 microns to 250 microns; combining at least a portion of the coarse fraction with at least a portion of the fine fraction to form a lactose composition; and combining the lactose composition with at least one medicament to form a pharmaceutical formulation. providing a plurality of unmilled lactose particles containing no more than 10% w/w of lactose particles having a volume average particle size of 70 microns or less, wherein said step of providing a plurality of lactose particles containing no more than 10% w/w of lactose particles having a volume average particle size of 70 microns or less comprises obtaining said plurality of lactose particles by classifying a source of lactose into two fractions comprising a fine fraction and said plurality of lactose particles containing no more than 10% w/w of lactose particles having a volume average particle size of 70 microns or less; milling the plurality of lactose particles to yield a plurality of milled lactose particles with an average particle size,, ranging from 50 microns to 100 microns; and classifying said plurality of milled lactose particles into at least two fractions comprising a fine fraction and a coarse fraction wherein the fine fraction has an average particle size,, ranging from 3 microns to 50 microns, and the coarse fraction has an average particle size,, ranging from 40 microns to 250 microns; combining at least a portion of the coarse fraction with at least a portion of the fine fraction to form a lactose composition; and combining the lactose composition with at least one medicament to form a pharmaceutical formulation.
A method of operation of a radio node that utilizes a Polar encoder, comprising: performing Polar encoding of a plurality of bits to provide a plurality of Polar-encoded code bits; re-ordering the plurality of Polar-encoded code bits to provide a plurality of re-ordered Polar-encoded code bits; storing the plurality of re-ordered Polar-encoded code bits in a circular buffer or linear buffer; extracting a first M bits from the circular buffer or the linear buffer as a plurality of rate-matched Polar-encoded code bits if a desired code rate for the plurality of rate-matched Polar-encoded code bits is within a first code rate region; and extracting M bits from the circular buffer or the linear buffer starting at an (N-M)-th bit of the circular buffer or the linear buffer as the plurality of rate-matched Polar-encoded code bits if the desired code rate for the plurality of rate-matched Polar-encoded code bits is within the second code rate region; wherein M < N. performing Polar encoding of a plurality of bits to provide a plurality of Polar-encoded code bits; re-ordering the plurality of Polar-encoded code bits to provide a plurality of re-ordered Polar-encoded code bits; storing the plurality of re-ordered Polar-encoded code bits in a circular buffer or linear buffer; extracting a first M bits from the circular buffer or the linear buffer as a plurality of rate-matched Polar-encoded code bits if a desired code rate for the plurality of rate-matched Polar-encoded code bits is within a first code rate region; and extracting M bits from the circular buffer or the linear buffer starting at an (N-M)-th bit of the circular buffer or the linear buffer as the plurality of rate-matched Polar-encoded code bits if the desired code rate for the plurality of rate-matched Polar-encoded code bits is within the second code rate region; wherein M < N.
A cable seal block assembly (120, 140, 220, 340) extending from a first end to a second end comprising: a first housing portion (131, 151, 231, 351) that extends from a first end (122, 142, 222, 342) to a second end (123, 143, 223, 343) and defines at least one axial passage extending therebetween, the first housing portion (131, 151, 231, 351) forming the first end of the cable sealing assembly (120, 140, 220, 340); a second housing portion (132, 152, 232, 352) that defines at least one axial passage; a gasket (130, 150, 230, 350) disposed between the first housing portion (131, 151, 231, 351) and the second housing portion (132, 152, 232, 352), the gasket (130, 150, 230, 350) defining at least one axial passage that aligns with the at least one axial passage of the first housing portion (131, 151, 231, 351) and the at least one axial passage of the second housing portion (132, 152, 232, 352); and an activation assembly (133, 153, 233, 353) that axially compresses the gasket (130, 150, 230, 350) when actuated; wherein a filler rod is positioned the at least one axial passage; characterized in that: the filler rod includes an attachment device for attaching an end of a tube. a first housing portion (131, 151, 231, 351) that extends from a first end (122, 142, 222, 342) to a second end (123, 143, 223, 343) and defines at least one axial passage extending therebetween, the first housing portion (131, 151, 231, 351) forming the first end of the cable sealing assembly (120, 140, 220, 340); a second housing portion (132, 152, 232, 352) that defines at least one axial passage; a gasket (130, 150, 230, 350) disposed between the first housing portion (131, 151, 231, 351) and the second housing portion (132, 152, 232, 352), the gasket (130, 150, 230, 350) defining at least one axial passage that aligns with the at least one axial passage of the first housing portion (131, 151, 231, 351) and the at least one axial passage of the second housing portion (132, 152, 232, 352); and an activation assembly (133, 153, 233, 353) that axially compresses the gasket (130, 150, 230, 350) when actuated; wherein a filler rod is positioned the at least one axial passage; characterized in that: the filler rod includes an attachment device for attaching an end of a tube. the filler rod includes an attachment device for attaching an end of a tube.
A biomaterial comprising: a neutral acyl lipid; a phospholipid; and an amphipathic block copolymer which contains a hydrophilic segment and a hydrophobic segment and in which a difference in ClogP value between the hydrophilic segment and the hydrophobic segment is more than 1.00, wherein a content of the amphipathic block copolymer is 1.0% to 20% by mass with respect to a total mass of a solid content of the biomaterial. a neutral acyl lipid; a phospholipid; and an amphipathic block copolymer which contains a hydrophilic segment and a hydrophobic segment and in which a difference in ClogP value between the hydrophilic segment and the hydrophobic segment is more than 1.00, wherein a content of the amphipathic block copolymer is 1.0% to 20% by mass with respect to a total mass of a solid content of the biomaterial.
Connector for providing hose and/or pipe connections, comprising a coupling part which has an insertion channel for a plug member to be mounted in an insertion direction, further comprising a retaining part which is arranged in a receiving opening of the coupling part and in a locking position can block the plug member to be mounted against the insertion direction, wherein a restoring element is arranged at least partially in the insertion channel of the coupling part and is designed in such a way that, in a mounted state with the plug part fully inserted, a restoring force can be exerted on the plug part in the insertion direction, the restoring element being deformable by the plug part in an elastic range counter to the insertion direction, the restoring element being supported directly axially and radially on the coupling part, characterized in that the coupling part, arranged in an inner wall of the insertion channel, has formed at least one guiding groove for guiding at least part of the restoring element, the guiding groove being formed so as to be open at least on one side at the front of the coupling part counter to the insertion direction and extending in the insertion direction.
A system for treating Cheyne-Stokes Respiration, comprising: a flow source configured to provide a flow of respiratory gas; a non-sealing interface in fluid communication with the flow source; a sensor configured to sense a breathing amplitude and generate a breathing amplitude signal; a controller configured to: receive the breathing amplitude signal from the sensor, identify respiration indicative of CSR, and control the flow of gas based on the identification of the respiration indicative of CSR; characterized in that the flow source is configured to provide a high flow of respiratory gas to the non-sealing interface. a flow source configured to provide a flow of respiratory gas; a non-sealing interface in fluid communication with the flow source; a sensor configured to sense a breathing amplitude and generate a breathing amplitude signal; a controller configured to: receive the breathing amplitude signal from the sensor, identify respiration indicative of CSR, and control the flow of gas based on the identification of the respiration indicative of CSR; receive the breathing amplitude signal from the sensor, identify respiration indicative of CSR, and control the flow of gas based on the identification of the respiration indicative of CSR;
A display comprising light-scattering regions (20a, 20b) each provided with linear protrusions and/or recesses having the same longitudinal direction, wherein directions of the linear protrusions and/or recesses of the respective light-scattering regions (20a, 20b) are different from each other, characterized in that in at least one of the light-scattering regions (20a, 20b),intervals of the linear protrusions and/or recesses in a light-scattering axis are arranged at random, the light-scattering axis being a direction in which the light-scattering region represents a maximum light-scattering ability, and the display further comprises a diffraction grating region provided with a relief structure which forms a diffraction grating. light-scattering regions (20a, 20b) each provided with linear protrusions and/or recesses having the same longitudinal direction, wherein directions of the linear protrusions and/or recesses of the respective light-scattering regions (20a, 20b) are different from each other, characterized in that in at least one of the light-scattering regions (20a, 20b),intervals of the linear protrusions and/or recesses in a light-scattering axis are arranged at random, the light-scattering axis being a direction in which the light-scattering region represents a maximum light-scattering ability, and the display further comprises a diffraction grating region provided with a relief structure which forms a diffraction grating.
A non-contact adjustable hysteretic magnetic encoder, comprising: a bipolar magnetic block disposed at a rotating shaft; two magnetic sensing components configured in a manner to generate two induction signals by sensing a magnetic field of the bipolar magnetic block, wherein the two induction signals differ from each other by a first predetermined phase; a storage for storing a rotation angle table of rotation angles corresponding to the two induction signals and storing a first phase signal code table and a second phase signal code table indicative of states corresponding to a first phase signal and a second phase signal at each said rotation angle; and a controller connected to the two magnetic sensing components and the storage so as to receive the two induction signals, retrieve a rotation angle of the rotating shaft in accordance with the rotation angle table, and determine and output digital logical values of the first phase signal and the second phase signal by an encoding rule in accordance with the rotation angles specified in the first phase signal code table and the second phase signal code table, wherein the encoding rule requires the controller to output a first digital logical value as soon as a code of a phase signal is in a first state, a second digital logical value as soon as the code of the phase signal is in a second state, and a digital logical value corresponding to the preceding code as soon as the code is in one of a third state and a fourth state. a bipolar magnetic block disposed at a rotating shaft; two magnetic sensing components configured in a manner to generate two induction signals by sensing a magnetic field of the bipolar magnetic block, wherein the two induction signals differ from each other by a first predetermined phase; a storage for storing a rotation angle table of rotation angles corresponding to the two induction signals and storing a first phase signal code table and a second phase signal code table indicative of states corresponding to a first phase signal and a second phase signal at each said rotation angle; and a controller connected to the two magnetic sensing components and the storage so as to receive the two induction signals, retrieve a rotation angle of the rotating shaft in accordance with the rotation angle table, and determine and output digital logical values of the first phase signal and the second phase signal by an encoding rule in accordance with the rotation angles specified in the first phase signal code table and the second phase signal code table, wherein the encoding rule requires the controller to output a first digital logical value as soon as a code of a phase signal is in a first state, a second digital logical value as soon as the code of the phase signal is in a second state, and a digital logical value corresponding to the preceding code as soon as the code is in one of a third state and a fourth state.
A user equipment, UE, apparatus communicating with a base station apparatus, the UE apparatus comprising: a control channel processing unit configured to monitor, in a subframe, a physical downlink control channel in a common search space and in a UE-specific search space characterised in that, in a case that monitoring of an enhanced physical downlink control channel is configured, the control channel processing unit is configured to monitor, in a subframe, the physical downlink control channel in the common search space and the enhanced physical downlink control channel in a UE-specific search space. a control channel processing unit configured to monitor, in a subframe, a physical downlink control channel in a common search space and in a UE-specific search space characterised in that, in a case that monitoring of an enhanced physical downlink control channel is configured, the control channel processing unit is configured to monitor, in a subframe, the physical downlink control channel in the common search space and the enhanced physical downlink control channel in a UE-specific search space.
Control device for an electromagnetic drive of a switching apparatus, comprising • a power supply unit configured to generate a pick-up direct voltage and a holding direct voltage for the electromagnetic drive of the switching apparatus depending on a control signal, and • a control unit configured to generate the control signal, which unit is configured to generate a second control signal for actuating a switch for joining or disconnecting the drive to or from the pick-up direct voltage or holding direct voltage generated by the power supply unit, characterised in that • the power supply unit is a switch-mode power supply unit, which is configured for an input voltage range, which is matched to the operating voltage range of the switching apparatus, wherein the input voltage range is approx. 48 volts to approx. 240 volts, approx. 110 volts to approx. 240 volts, or approx. 24 volts to approx. 240 volts, and • the control unit is configured to generate the second control signal depending on a measuring voltage derived from an input voltage of the control device. • a power supply unit configured to generate a pick-up direct voltage and a holding direct voltage for the electromagnetic drive of the switching apparatus depending on a control signal, and • a control unit configured to generate the control signal, which unit is configured to generate a second control signal for actuating a switch for joining or disconnecting the drive to or from the pick-up direct voltage or holding direct voltage generated by the power supply unit, characterised in that • the power supply unit is a switch-mode power supply unit, which is configured for an input voltage range, which is matched to the operating voltage range of the switching apparatus, wherein the input voltage range is approx. 48 volts to approx. 240 volts, approx. 110 volts to approx. 240 volts, or approx. 24 volts to approx. 240 volts, and • the control unit is configured to generate the second control signal depending on a measuring voltage derived from an input voltage of the control device.
A composite storage tank system for gaseous hydrogen, the system comprising a composite storage tank having a composite wall enclosing a gas storage volume, the composite wall including either a metal hydride element, or a metal element capable of forming a metal hydride in the presence of hydrogen, the system further comprising measuring apparatus arranged to measure an electrical characteristic of the metal hydride element or the metal element.
A baby monitor system, comprising: a baby monitor unit having a microphone for collecting sounds of a baby to be monitored and an output system for providing alerts to a set of at least two carer receiver units; and a processor arrangement for triggering alerts for one or more of the carer receiver units, wherein the processor arrangement is adapted to: analyze the sounds collected by the baby monitor unit; identify crying from the analyzed sounds and categorize the crying as one of a set of different crying types; generate a first alert trigger signal for triggering a first alert to a first carer receiver unit in response to the crying being one of a first sub-set of crying types; and generate a second alert trigger signal for triggering a second alert to a second carer receiver unit in response to the crying being one of a second sub-set of crying types, different to the first sub-set of crying types. a baby monitor unit having a microphone for collecting sounds of a baby to be monitored and an output system for providing alerts to a set of at least two carer receiver units; and a processor arrangement for triggering alerts for one or more of the carer receiver units, wherein the processor arrangement is adapted to: analyze the sounds collected by the baby monitor unit; identify crying from the analyzed sounds and categorize the crying as one of a set of different crying types; generate a first alert trigger signal for triggering a first alert to a first carer receiver unit in response to the crying being one of a first sub-set of crying types; and generate a second alert trigger signal for triggering a second alert to a second carer receiver unit in response to the crying being one of a second sub-set of crying types, different to the first sub-set of crying types. analyze the sounds collected by the baby monitor unit; identify crying from the analyzed sounds and categorize the crying as one of a set of different crying types; generate a first alert trigger signal for triggering a first alert to a first carer receiver unit in response to the crying being one of a first sub-set of crying types; and generate a second alert trigger signal for triggering a second alert to a second carer receiver unit in response to the crying being one of a second sub-set of crying types, different to the first sub-set of crying types.
A pressure sensitive adhesive composition which comprises the following three components: a vinyl polymer having at least one alkenyl group represented by the general formula: CH 2 =C(R 1)- wherein R 1 represents a hydrogen atom or a methyl group, a production method of the component vinyl polymer comprises living radical polymerization, and the number average molecular weight of said vinyl polymer is within the range of 500 to 100,000; a hydrosilyl group-containing compound wherein the alkenyl group-to-hydrosilyl group mole ratio is within the range of 5 to 0.2; and a tackifier resin. a vinyl polymer having at least one alkenyl group represented by the general formula: CH 2 =C(R 1)- wherein R 1 represents a hydrogen atom or a methyl group, a production method of the component vinyl polymer comprises living radical polymerization, and the number average molecular weight of said vinyl polymer is within the range of 500 to 100,000; a hydrosilyl group-containing compound
An exhaust gas after treatment system comprising - a diesel particulate filter unit arranged downstream of a diesel engine, - a NO 2 to NO reduction catalyst arranged downstream of said diesel particulate filter unit, - a selective catalytic reduction arrangement arranged downstream of said NO 2 to NO reduction catalyst, - a first injector for feeding reducing agent into the exhaust gas arranged downstream said diesel particulate filter unit and upstream said NO 2 to NO reduction catalyst, - a second injector for feeding reducing agent into the exhaust gas arranged downstream said NO 2 to NO reduction catalyst and upstream said selective catalytic reduction arrangement. - a diesel particulate filter unit arranged downstream of a diesel engine, - a NO 2 to NO reduction catalyst arranged downstream of said diesel particulate filter unit, - a selective catalytic reduction arrangement arranged downstream of said NO 2 to NO reduction catalyst, - a first injector for feeding reducing agent into the exhaust gas arranged downstream said diesel particulate filter unit and upstream said NO 2 to NO reduction catalyst, - a second injector for feeding reducing agent into the exhaust gas arranged downstream said NO 2 to NO reduction catalyst and upstream said selective catalytic reduction arrangement.