mhurhangee/patent-ind-claim-en huggingface dataset:
A firearm comprising: a mechanical firing mechanism ; and an Electro Mechanical Fire Control (EMFC) apparatus for controlling firing of the firearm, comprising: a mechanical energy storing mechanism , configured to store mechanical energy which is produced by the mechanical firing mechanism , upon firing the firearm or by manual operation of the firearm, an electromagnet , configured to control the mechanical energy storing mechanism , wherein the mechanical energy storing mechanism holds or releases the mechanical energy thereby to prevent or enable the firearm from firing; and a processor configured to activate or deactivate the electromagnet to control the operation of the mechanical energy storing mechanism according to preselected rules, wherein the apparatus is independent from the mechanical firing mechanism of the firearm, enabling the firearm to be operated normally even if the apparatus malfunctions or runs out of energy. a mechanical firing mechanism ; and an Electro Mechanical Fire Control (EMFC) apparatus for controlling firing of the firearm, comprising: a mechanical energy storing mechanism , configured to store mechanical energy which is produced by the mechanical firing mechanism , upon firing the firearm or by manual operation of the firearm, an electromagnet , configured to control the mechanical energy storing mechanism , wherein the mechanical energy storing mechanism holds or releases the mechanical energy thereby to prevent or enable the firearm from firing; and a processor configured to activate or deactivate the electromagnet to control the operation of the mechanical energy storing mechanism according to preselected rules, a mechanical energy storing mechanism , configured to store mechanical energy which is produced by the mechanical firing mechanism , upon firing the firearm or by manual operation of the firearm, an electromagnet , configured to control the mechanical energy storing mechanism , wherein the mechanical energy storing mechanism holds or releases the mechanical energy thereby to prevent or enable the firearm from firing; and a processor configured to activate or deactivate the electromagnet to control the operation of the mechanical energy storing mechanism according to preselected rules,
A display device comprising: a display module in which a panel hole (PH) is defined; a sensor device (SED1) disposed in the panel hole (PH); and a panel lower cover which is disposed on a surface of the display module and in which a cover hole (CH1) is defined such that the sensor device (SED1) is disposed in the cover hole (CH1), the panel lower cover including: a buffer member ; and a first adhesive member , which attaches the buffer member to the surface of the display module , characterized in that a minimum distance between the first adhesive member and the sensor device (SED1) is greater than a minimum distance between the buffer member and the sensor device (SED1). a display module in which a panel hole (PH) is defined; a sensor device (SED1) disposed in the panel hole (PH); and a panel lower cover which is disposed on a surface of the display module and in which a cover hole (CH1) is defined such that the sensor device (SED1) is disposed in the cover hole (CH1), the panel lower cover including: a buffer member ; and a first adhesive member , which attaches the buffer member to the surface of the display module , a buffer member ; and a first adhesive member , which attaches the buffer member to the surface of the display module , characterized in that a minimum distance between the first adhesive member and the sensor device (SED1) is greater than a minimum distance between the buffer member and the sensor device (SED1).
A monoclonal anti-Na v 1.7 antibody or binding fragment thereof which binds the E1 extracellular region of the Na v 1.7 ion channel and is functionally modifying thereto by blocking, closing or inhibiting a pore of the ion channel, comprising a heavy chain and a light chain wherein the: i. variable domain of the heavy chain comprises the sequence given in SEQ ID NO: 40 for CDR-H1, the sequence given in SEQ ID NO: 41 for CDR-H2 and the sequence given in SEQ ID NO: 42 for CDR-H3 and, wherein the variable domain of the light chain comprises the sequence given in SEQ ID NO: 37 for CDR-L1, the sequence given in SEQ ID NO: 38 for CDR-L2 and the sequence given in SEQ ID NO: 39 for CDR-L3: or ii. variable domain of the heavy chain comprises the sequence given in SEQ ID NO: 82 for CDR-H1, the sequence given in SEQ ID NO: 83 for CDR-H2 and the sequence given in SEQ ID NO: 84 for CDR-H3 and, wherein the variable domain of the light chain comprises the sequence given in SEQ ID NO: 79 for CDR-L1, the sequence given in SEQ ID NO: 80 for CDR-L2 and the sequence given in SEQ ID NO: 81 for CDR-L3. i. variable domain of the heavy chain comprises the sequence given in SEQ ID NO: 40 for CDR-H1, the sequence given in SEQ ID NO: 41 for CDR-H2 and the sequence given in SEQ ID NO: 42 for CDR-H3 and, wherein the variable domain of the light chain comprises the sequence given in SEQ ID NO: 37 for CDR-L1, the sequence given in SEQ ID NO: 38 for CDR-L2 and the sequence given in SEQ ID NO: 39 for CDR-L3: or ii. variable domain of the heavy chain comprises the sequence given in SEQ ID NO: 82 for CDR-H1, the sequence given in SEQ ID NO: 83 for CDR-H2 and the sequence given in SEQ ID NO: 84 for CDR-H3 and, wherein the variable domain of the light chain comprises the sequence given in SEQ ID NO: 79 for CDR-L1, the sequence given in SEQ ID NO: 80 for CDR-L2 and the sequence given in SEQ ID NO: 81 for CDR-L3.
A thermoplastic composition comprising: from 50 wt. % to 90 wt. % of a polymeric base resin; and from 10 wt. % to 50 wt. % of a low dielectric constant (Dk)/low dissipation factor (Df) glass fiber component, wherein the low Dk/low Df glass fiber component has a Dk of less than 5.0 at a frequency of from 1 MHz to 1 GHz and a Df of less than 0.002 at a frequency of from 1 MHz to 1 GHz. from 50 wt. % to 90 wt. % of a polymeric base resin; and from 10 wt. % to 50 wt. % of a low dielectric constant (Dk)/low dissipation factor (Df) glass fiber component, wherein the low Dk/low Df glass fiber component has a Dk of less than 5.0 at a frequency of from 1 MHz to 1 GHz and a Df of less than 0.002 at a frequency of from 1 MHz to 1 GHz.
A terminal comprising: a receiving section configured to receive a downlink signal; a transmitting section configured to transmit an uplink signal; and a control section configured to control a transmission time interval used in reception of the downlink signal and/or used in transmission of the uplink signal, wherein the control section is configured to control the transmission time interval used in reception of the downlink signal and/or used in transmission of the uplink signal to be a first transmission time interval of length 1ms or a second transmission time interval that is shorter than the first transmission time interval, and in the case where the second TTI is used in time division duplex, TDD, communication, the receiving section is configured to receive an uplink-downlink configuration for use with the first transmission time interval via system infοrmatiοn block 1, SIB1, or radio resource control, RRC, signaling, and the control section is configured to determine a transmission direction of the second transmission time interval to be the same as a transmission direction of the first transmission time interval based on the uplink-downlink configuration for the first transmission time interval. a receiving section configured to receive a downlink signal; a transmitting section configured to transmit an uplink signal; and a control section configured to control a transmission time interval used in reception of the downlink signal and/or used in transmission of the uplink signal, wherein the control section is configured to control the transmission time interval used in reception of the downlink signal and/or used in transmission of the uplink signal to be a first transmission time interval of length 1ms or a second transmission time interval that is shorter than the first transmission time interval, and in the case where the second TTI is used in time division duplex, TDD, communication, the receiving section is configured to receive an uplink-downlink configuration for use with the first transmission time interval via system infοrmatiοn block 1, SIB1, or radio resource control, RRC, signaling, and the control section is configured to determine a transmission direction of the second transmission time interval to be the same as a transmission direction of the first transmission time interval based on the uplink-downlink configuration for the first transmission time interval.
A composition comprising a solution which in turn comprises an amino acidic chain gelatin polymer characterized by presenting a content of proline and hydroxyproline equal to or less than 20% with respect to the total amino acid content, at a concentration from 1% to 20% (w/v), which further comprises a polymerizing initiator such as a photoinitiator and wherein the amino acidic chain is chemically functionalized with a chemical agent selected from the group consisting of methacryloyl groups or acryloyl groups to become reactive to polymerization or crosslinking in presence of free radicals.
Method for the preparation of an active ruthenium catalyst solution, for the transvinylation of a reactant vinyl ester with a reactant carboxylic acid, having a ruthenium concentration greater than 0.5% by weight of Ru metal, based on the total weight of the ruthenium catalyst solution, characterized in that a) at least one ruthenium(III) halide is reacted with at least one inorganic or organic base, at least one reactant vinyl ester and at least one reactant carboxylic acid, at a temperature of 70°C to 170°C, wherein b) the molar ratio of reactant vinyl ester to reactant carboxylic acid is from 1:1.8 to 1.8:1, and c) the ruthenium(III) halide is used in an amount of ≥ 0.5% by weight of Ru metal based on the total weight of reactant vinyl ester and reactant carboxylic acid. a) at least one ruthenium(III) halide is reacted with at least one inorganic or organic base, at least one reactant vinyl ester and at least one reactant carboxylic acid, at a temperature of 70°C to 170°C, wherein b) the molar ratio of reactant vinyl ester to reactant carboxylic acid is from 1:1.8 to 1.8:1, and c) the ruthenium(III) halide is used in an amount of ≥ 0.5% by weight of Ru metal based on the total weight of reactant vinyl ester and reactant carboxylic acid.
Transverse segment for a drive belt with an endless carrier and with a number of such transverse segments , slidably arranged on the endless carrier , which transverse segment is provided with two main body surfaces , where between the transverse segment extends in thickness direction and whereof a first main body surface is provided with a convexly curved tilting edge , which tilting edge provides a transition in height direction between an upper part of the transverse segment with an essentially constant thickness (Tts) and a lower part of the transverse segment , whereof the thickness reduces in a direction away from the tilting edge , and which tilting edge serves to allow two adjacent transverse segments in the drive belt to mutually tilt or rotate while remaining in pushing contact with one another in the drive belt by a flat section of a second main body surface of the two main body surfaces of one of the two adjacent transverse segment rolling-off on the convex curvature of the tilting edge of the said first main body surface of the other one of the two adjacent transverse segments , which transverse segment is further provided with at least one cut-out that extends in-between the two main body surfaces and that in downward direction is bounded by a bearing surface supporting the inside of the endless carrier , characterized in that an upper extend of the tilting edge is located above the bearing surface and in that a lower extend of the tilting edge is located below the bearing surface .
A dialysis treatment system comprising: at least one fluid conduit; at least one mechanical component coupled to the at least one fluid conduit; and a treatment controller configured to control operation of the at least one mechanical component to manage passage of fluid through the at least one conduit for a patient, wherein the treatment controller includes: a sleep state component configured to determine a sleep state for the patient, store sleep state data over time for the patient, and project an expected sleep state for the patient responsive to analyzing the stored sleep state data; and an execution component configured to limit operation of at least the at least one mechanical component responsive to the determined sleep state, wherein the execution component is configured to manage treatment execution, including operation of the at least one mechanical component , responsive to receiving expected sleep state information from the sleep state component , and schedule the treatment execution such that a loudest treatment operation is executed during time periods projected to coincide with deep sleep states for the patient. at least one fluid conduit; at least one mechanical component coupled to the at least one fluid conduit; and a treatment controller configured to control operation of the at least one mechanical component to manage passage of fluid through the at least one conduit for a patient, wherein the treatment controller includes: a sleep state component configured to determine a sleep state for the patient, store sleep state data over time for the patient, and project an expected sleep state for the patient responsive to analyzing the stored sleep state data; and an execution component configured to limit operation of at least the at least one mechanical component responsive to the determined sleep state, wherein the execution component is configured to manage treatment execution, including operation of the at least one mechanical component , responsive to receiving expected sleep state information from the sleep state component , and schedule the treatment execution such that a loudest treatment operation is executed during time periods projected to coincide with deep sleep states for the patient. a sleep state component configured to determine a sleep state for the patient, store sleep state data over time for the patient, and project an expected sleep state for the patient responsive to analyzing the stored sleep state data; and an execution component configured to limit operation of at least the at least one mechanical component responsive to the determined sleep state, wherein the execution component is configured to manage treatment execution, including operation of the at least one mechanical component , responsive to receiving expected sleep state information from the sleep state component , and schedule the treatment execution such that a loudest treatment operation is executed during time periods projected to coincide with deep sleep states for the patient.
Device at least partially in the form of a rod having a diameter of 2-100 mm, wherein the device comprises a material capable of eliciting a foreign body response, and wherein the surface of the device has a root mean square roughness (Rq) of at least 100 nm, preferably at least 150 nm, to allow the device to elicit an inflammatory response resulting in the encapsulation of the device by a tissue structure.
A chemical mechanical polishing composition comprising: a water based liquid carrier; colloidal silica abrasive particles dispersed in the liquid carrier; a chemical species incorporated in the colloidal silica abrasive particles internal to an outer surface thereof, wherein the chemical species is a nitrogen containing compound or a phosphorus containing compound; a pH in a range from 1.5 to 7; wherein the colloidal silica abrasive particles have a permanent positive charge of at least 13 mV; and wherein an aminosilane compound is bonded with the outer surface of the colloidal silica abrasive particles. a water based liquid carrier; colloidal silica abrasive particles dispersed in the liquid carrier; a chemical species incorporated in the colloidal silica abrasive particles internal to an outer surface thereof, wherein the chemical species is a nitrogen containing compound or a phosphorus containing compound; a pH in a range from 1.5 to 7; wherein the colloidal silica abrasive particles have a permanent positive charge of at least 13 mV; and wherein an aminosilane compound is bonded with the outer surface of the colloidal silica abrasive particles.
A heater for a heat not burn device ; the heater including a longitudinal heating element including a resistive heating track formed thereon; the heater further including a mount surrounding a portion of the heating element and the heating track, wherein the heating element is formed from a heater material of a first thermal conductivity and the mount is formed from a mount material of a second thermal conductivity; the second thermal conductivity being lower than the first thermal conductivity, characterised in that the mount material is zirconia.
A chromatographic column assembly comprising: - a channel comprising an inlet for receiving a sample liquid and an outlet , the channel being a chromatographic column adapted for separating the sample liquid into components when said sample liquid flows through the channel in an axial direction from said inlet to said outlet ; and - a controllable flow inducer for inducing, when the sample liquid is flowing through the channel, a motion of said sample liquid in the channel in a plane substantially orthogonal to said axial direction, characterized in that the controllable flow inducer is a vortex flow inducer . - a channel comprising an inlet for receiving a sample liquid and an outlet , the channel being a chromatographic column adapted for separating the sample liquid into components when said sample liquid flows through the channel in an axial direction from said inlet to said outlet ; and - a controllable flow inducer for inducing, when the sample liquid is flowing through the channel, a motion of said sample liquid in the channel in a plane substantially orthogonal to said axial direction,
An integrated circuit comprising: programmable clock division logic circuitry , wherein the programmable clock division logic circuitry outputs a number of divided clock sources; the integrated circuit is characterised by a built-in self-test BIST circuitry including: divided clock counter circuitry for each of the divided clock sources, the divided clock counter circuitry including scan chain circuitry through which pseudo random scan patterns are shifted through the scan chain circuitry, wherein the divided clock counter circuitry is configured to: use a shift clock signal during a scan shift mode of operation, use a corresponding one of the divided clock signals during a capture mode of operation, count a number of clock pulses during the capture mode of operation, and output scan test signatures that include scan test results during the capture mode of operation; and a BIST controller configured to determine when a number of the predefined test patterns have been processed by the programmable clock division logic circuitry and compare an expected test signature to a final scan test signature to test logic in the divided clock counter circuitry. divided clock counter circuitry for each of the divided clock sources, the divided clock counter circuitry including scan chain circuitry through which pseudo random scan patterns are shifted through the scan chain circuitry, wherein the divided clock counter circuitry is configured to: use a shift clock signal during a scan shift mode of operation, use a corresponding one of the divided clock signals during a capture mode of operation, count a number of clock pulses during the capture mode of operation, and output scan test signatures that include scan test results during the capture mode of operation; and use a shift clock signal during a scan shift mode of operation, use a corresponding one of the divided clock signals during a capture mode of operation, count a number of clock pulses during the capture mode of operation, and output scan test signatures that include scan test results during the capture mode of operation; and a BIST controller configured to determine when a number of the predefined test patterns have been processed by the programmable clock division logic circuitry and compare an expected test signature to a final scan test signature to test logic in the divided clock counter circuitry.
A power transmission network, for interconnecting at least one variable power source and at least one AC or DC electrical network comprising: at least one DC transmission link for DC power transmission between at least one network side converter and at least one source side converter ; at least one AC transmission link for AC power transmission from the or the respective variable power source to at least one source side converter ; at least one source side converter including: a DC connecting point operably connected to the or the respective DC transmission link ; and an AC connecting point operably connected to the or the respective AC transmission link ; at least one network side converter including: an AC or DC connecting point for connection to the or the respective AC or DC electrical network; and a DC connecting point operably connected to the or the respective DC transmission link ; and a control system , wherein at least one network side converter is designated as a first converter, the power transmission network being characterized in that the control system is configured to operate the or each first converter in a DC voltage control mode as a DC slack bus to vary a DC voltage at its DC connecting point with respect to the power generated by the or the respective variable power source . at least one DC transmission link for DC power transmission between at least one network side converter and at least one source side converter ; at least one AC transmission link for AC power transmission from the or the respective variable power source to at least one source side converter ; at least one source side converter including: a DC connecting point operably connected to the or the respective DC transmission link ; and an AC connecting point operably connected to the or the respective AC transmission link ; at least one network side converter including: an AC or DC connecting point for connection to the or the respective AC or DC electrical network; and a DC connecting point operably connected to the or the respective DC transmission link ; and a control system , wherein at least one network side converter is designated as a first converter,