mhurhangee/patent-ind-claim-en huggingface dataset:
A compound which is a benzimidazolyl isoxazole of formula (I): wherein: R 0 and R, which are the same or different, are each H or C 1-6 alkyl; R 9 , R 9' and R 9" , which are the same or different, are each H or F; X is -(alk) n -, -alk-C(=O)-NR-, -alk-NR-C(=O)- or -alk-C(=O)-; R 1 is selected from -S(=O) 2 R', a 4- to 6-membered, C-linked heterocyclic group which is unsubstituted or substituted and an N-linked spiro group of the following formula: R 2 and R 2' , which are the same or different, are each H or C 1-6 alkyl; or R 2 and R 2' form, together with the C atom to which they are attached, a C 3-6 cycloalkyl group; R 3 and R 3 , which are the same or different, are each H, C 1-6 alkyl, OH or F; R 4 is phenyl or a 5- to 12-membered, N-containing heteroaryl group and is unsubstituted or substituted; alk is C 1-6 alkylene; R' is C 1-6 alkyl; and n is 0 or 1; or a pharmaceutically acceptable salt thereof. R 0 and R, which are the same or different, are each H or C 1-6 alkyl; R 9 , R 9' and R 9" , which are the same or different, are each H or F; X is -(alk) n -, -alk-C(=O)-NR-, -alk-NR-C(=O)- or -alk-C(=O)-; R 1 is selected from -S(=O) 2 R', a 4- to 6-membered, C-linked heterocyclic group which is unsubstituted or substituted and an N-linked spiro group of the following formula: R 2 and R 2' , which are the same or different, are each H or C 1-6 alkyl; or R 2 and R 2' form, together with the C atom to which they are attached, a C 3-6 cycloalkyl group; R 3 and R 3 , which are the same or different, are each H, C 1-6 alkyl, OH or F; R 4 is phenyl or a 5- to 12-membered, N-containing heteroaryl group and is unsubstituted or substituted; alk is C 1-6 alkylene; R' is C 1-6 alkyl; and n is 0 or 1;
Carrier device , which can be attached to a lifting vehicle, with an attachment device , with a fork- toe device comprising at least one fork , in particular a pair of forks , with at least one transport device with a chain drive arranged as a drive chain , for driving a lateral movement of the attachment device , and with a longitudinal transport device arranged for longitudinal transport of goods along the at least one fork , wherein the longitudinal transport device comprises a transport chain , wherein the transport device has at least one tensioning device for the drive chain , in particular for a deflection roller device , the tensioning device comprising at least one power piston , namely a hydraulic piston , by means of which the tensioning device is to be maintained at a predetermined tension, wherein either the power piston is a plunger cylinder wherein the tension of the transport device is to be maintained on the tensioning device by compressive force of the plunger cylinder , or the power piston is a differential cylinder , wherein the tension of the transport device is to be maintained on the tensioning device by tensile force of the differential cylinder .
A heat ray absorbing lamp cover having an average visible light transmittance of 75% or more, an average near-infrared light transmittance of 75% or less, and a haze of 3.0% or less, wherein the heat ray absorbing lamp cover is formed of a resin composition comprising an inorganic infrared-ray shielding material in a ratio of 1 to 5000 ppm by mass to 100 parts by mass of a thermoplastic resin, wherein the inorganic infrared-ray shielding material comprises composite tungsten oxide fine particles, and characterized in that the heat ray absorbing lamp cover further comprises at least one selected from the group consisting of a red dye, an orange dye and a yellow dye in a range of 0.1 to 10 parts by mass to 100 parts by mass of the composite tungsten oxide fine particles.
An apparatus comprising: (a) a body, wherein the body is configured to be positioned between a patient's back and a backrest of a chair; (b) an upright member connected to and extending upwardly from the body; (c) a frame mounted to the upright member, wherein the frame has a curved configuration configured to partially surround a patient's head; and (d) a plurality of field generating elements supported by the frame, wherein the field generating elements are configured to generate an electromagnetic field around a patient's head partially surrounded by the frame. (a) a body, wherein the body is configured to be positioned between a patient's back and a backrest of a chair; (b) an upright member connected to and extending upwardly from the body; (c) a frame mounted to the upright member, wherein the frame has a curved configuration configured to partially surround a patient's head; and (d) a plurality of field generating elements supported by the frame, wherein the field generating elements are configured to generate an electromagnetic field around a patient's head partially surrounded by the frame.
A pad for improving sitting posture, comprising: a pad body being hollow, forming an airbag and being inflatable; and comprising a bottom surface adapted to be placed on a plane and forming a shape similar to a sine curve, wherein the general shape of the pad body resembles a saddle shape; at least two elevated segments formed on the pad body, the two elevated segments being referred to as a first elevated segment and a second elevated segement , respectively, wherein the at least two elevated segments are symmetrical, and the first elevated segment and the second elevated segment are configured for supporting a pelvis of a human body from the front and the back, respectively; and the bridge part formed between the first elevated segment and the second elevated segment, which are spaced with an interval, of the pad body, wherein the bridge part and the elevated segments surrounding the front and the back of the pelvis and wherein the bridge part is configured for supporting a part corresponding to a lower end of an ischium or a lower end of a coccyx of the human body, with the effect that pad limits the pelvis at an appropriate upright position through the two elevated segments and supports, through the bridge part, the part at the lower end of the ischium or the part at the lower end of the coccyx. a pad body being hollow, forming an airbag and being inflatable; and comprising a bottom surface adapted to be placed on a plane and forming a shape similar to a sine curve, wherein the general shape of the pad body resembles a saddle shape; at least two elevated segments formed on the pad body, the two elevated segments being referred to as a first elevated segment and a second elevated segement , respectively, wherein the at least two elevated segments are symmetrical, and the first elevated segment and the second elevated segment are configured for supporting a pelvis of a human body from the front and the back, respectively; and the bridge part formed between the first elevated segment and the second elevated segment, which are spaced with an interval, of the pad body, wherein the bridge part and the elevated segments surrounding the front and the back of the pelvis and wherein the bridge part is configured for supporting a part corresponding to a lower end of an ischium or a lower end of a coccyx of the human body, with the effect that pad limits the pelvis at an appropriate upright position through the two elevated segments and supports, through the bridge part, the part at the lower end of the ischium or the part at the lower end of the coccyx.
A bladder for a sole structure for an article of footwear comprising: a first fluid-filled segment including a first terminal end and a second terminal end disposed on opposite ends of the first fluid-filled segment along a first straight longitudinal axis (A 232 ) of the first fluid-filled segment ; and a second fluid-filled segment including a third terminal end and a fourth terminal end disposed on opposite ends of the second fluid-filled segment along a second straight longitudinal axis (A 232 ) of the second fluid-filled segment , the second fluid-filled segment being (i) spaced apart from the first fluid-filled segment in a first direction transverse to the first straight longitudinal axis (A 232 ) and the second straight longitudinal axis (A 232 ) and (ii) convergent with the first fluid-filled segment , wherein the first fluid-filled segment forms a tubular body defining a circular cross section that extends along the first straight longitudinal axis (A 232 ) and the second fluid-filled segment forms a tubular body defining a circular cross section that extends along the second straight longitudinal axis (A 232 ), and wherein the first fluid-filled segment tapers in a direction along the first straight longitudinal axis (A 232 ) and the second fluid-filled segment tapers in a direction along the second straight longitudinal axis (A 232 ). a first fluid-filled segment including a first terminal end and a second terminal end disposed on opposite ends of the first fluid-filled segment along a first straight longitudinal axis (A 232 ) of the first fluid-filled segment ; and a second fluid-filled segment including a third terminal end and a fourth terminal end disposed on opposite ends of the second fluid-filled segment along a second straight longitudinal axis (A 232 ) of the second fluid-filled segment , the second fluid-filled segment being (i) spaced apart from the first fluid-filled segment in a first direction transverse to the first straight longitudinal axis (A 232 ) and the second straight longitudinal axis (A 232 ) and (ii) convergent with the first fluid-filled segment , wherein the first fluid-filled segment forms a tubular body defining a circular cross section that extends along the first straight longitudinal axis (A 232 ) and the second fluid-filled segment forms a tubular body defining a circular cross section that extends along the second straight longitudinal axis (A 232 ), and wherein the first fluid-filled segment tapers in a direction along the first straight longitudinal axis (A 232 ) and the second fluid-filled segment tapers in a direction along the second straight longitudinal axis (A 232 ).
Oil-free compressor with an oil circuit for lubrication and cooling of the oil-free compressor , the oil-free compressor comprising a motor with a variable speed and a compressor element driven by said motor , - whereby this oil circuit is provided with an oil reservoir with oil and a rotary oil pump configured to drive oil from the oil reservoir through an inlet channel upstream the rotary oil pump to the compressor element and/or the motor via an oil pipe ; - whereby this rotary oil pump is provided with a rotor mounted on a rotation shaft , whereby this rotary oil pump has a swept volume, and whereby this rotary oil pump is driven by the motor of the compressor element ; - whereby the oil circuit is further provided with a return pipe configured to guide oil from the compressor element and/or the motor back to the oil reservoir ; - whereby the oil circuit is further provided with a bypass pipe and a pressure-actuated bypass valve which are configured to directly guide a portion of the oil between the rotary oil pump and the compressor element and/or the motor back to the oil reservoir without this portion of the oil passing through the compressor element and/or the motor during its way back to the oil reservoir ; and - whereby the oil circuit is further provided with an oil cooler , characterised in that the oil cooler is placed in the bypass pipe , that the bypass valve is placed in the oil pipe , that the inlet channel is provided with a dam with a height (D) that is higher than a height (A) of a centreline of the rotation shaft of the rotary oil pump reduced with a smallest diameter (B) of the rotor of the rotary oil pump divided by two, and that the oil circuit is provided with a sensor configured to register whether oil is present between the :rotary oil pump and the dam . - whereby this oil circuit is provided with an oil reservoir with oil and a rotary oil pump configured to drive oil from the oil reservoir through an inlet channel upstream the rotary oil pump to the compressor element and/or the motor via an oil pipe ; - whereby this rotary oil pump is provided with a rotor mounted on a rotation shaft , whereby this rotary oil pump has a swept volume, and whereby this rotary oil pump is driven by the motor of the compressor element ; - whereby the oil circuit is further provided with a return pipe configured to guide oil from the compressor element and/or the motor back to the oil reservoir ; - whereby the oil circuit is further provided with a bypass pipe and a pressure-actuated bypass valve which are configured to directly guide a portion of the oil between the rotary oil pump and the compressor element and/or the motor back to the oil reservoir without this portion of the oil passing through the compressor element and/or the motor during its way back to the oil reservoir ; and - whereby the oil circuit is further provided with an oil cooler ,
Secondary battery , comprising a current collecting lead , a sealing body , a current collector and an electrode group , wherein the current collecting lead is interposed between the sealing body and the current collector for connecting the sealing body and the current collector , wherein the sealing body includes a terminal and the current collector is attached to the electrode group , and wherein the current collecting lead includes: a top wall that is positioned on the side of the sealing body; a bottom wall that is positioned on the side of the current collector and that faces the top wall ; a pair of side walls that extend between side edges of the top wall and side edges of the bottom wall and that face each other; and corner portions formed by the top wall and the side walls and corner portions formed by the bottom wall and the side walls being rounded corners that are curved, characterized in that the top wall includes a top wall welding-intended portion where a welding portion is formed at time of welding with the sealing body , the bottom wall includes a bottom wall welding-intended portion where a welding portion is formed at time of welding with the current collector , and on assumption of an imaginary line that extends across the top wall , the side wall and the bottom wall and that joins the top wall welding-intended portion and the bottom wall welding-intended portion by the shortest way, the side wall has a side wall through-hole that is drilled at a position away from the imaginary line. the top wall includes a top wall welding-intended portion where a welding portion is formed at time of welding with the sealing body , the bottom wall includes a bottom wall welding-intended portion where a welding portion is formed at time of welding with the current collector , and on assumption of an imaginary line that extends across the top wall , the side wall and the bottom wall and that joins the top wall welding-intended portion and the bottom wall welding-intended portion by the shortest way, the side wall has a side wall through-hole that is drilled at a position away from the imaginary line.
A structure comprising: a plurality of flip-chip semiconductor light emitting diodes attached to a substrate ; and a first wavelength converting region of wavelength converting material disposed on the substrate between the semiconductor light emitting diodes , wherein the wavelength converting material is configured to absorb light emitted by the semiconductor light emitting diodes and emit light at a different wavelength, wherein in the first wavelength converting region , the wavelength converting material covers an entire surface of the substrate in the region where it is formed; an optical cavity , wherein the substrate , the semiconductor light emitting diodes and the first wavelength converting region form the bottom surface of the optical cavity ; a second wavelength converting region of wavelength converting material disposed proximate a top surface of the optical cavity ; and reflective regions disposed above the semiconductor light emitting diodes , which reflective regions have a roughened, textured, or patterned surface or a shape to direct reflected light away from the semiconductor light emitting diodes . a plurality of flip-chip semiconductor light emitting diodes attached to a substrate ; and a first wavelength converting region of wavelength converting material disposed on the substrate between the semiconductor light emitting diodes , wherein the wavelength converting material is configured to absorb light emitted by the semiconductor light emitting diodes and emit light at a different wavelength, wherein in the first wavelength converting region , the wavelength converting material covers an entire surface of the substrate in the region where it is formed; an optical cavity , wherein the substrate , the semiconductor light emitting diodes and the first wavelength converting region form the bottom surface of the optical cavity ; a second wavelength converting region of wavelength converting material disposed proximate a top surface of the optical cavity ; and reflective regions disposed above the semiconductor light emitting diodes , which reflective regions have a roughened, textured, or patterned surface or a shape to direct reflected light away from the semiconductor light emitting diodes .
A reflector comprising a hollow body having an interior surface defining a passage through the hollow body, the interior surface having at least one optical surface part configured to reflect radiation and a supporter surface part , wherein the optical surface part has a predetermined optical power and the supporter surface part does not have the predetermined optical power, wherein the supporter surface part is to support the optical surface part.
Method for operating a pulse power converter , comprising - a number of actively switchable, unipolar semiconductor switches with a parallel free-wheeling diode in each case, - a control unit for actuating each semiconductor switch with a respectively assigned control signal (S), and - a number of driver circuits , which are interconnected between the control unit and the semiconductor switches , wherein, in line with the procedure - a measured variable (Ud, Um) is detected for the energization state of each free-wheeling diode by means of the driver circuits in each case, and - each semiconductor switch is powered up by the driver circuits if the parallel free-wheeling diode is energized according to the assigned measured variable (Ud, Um), characterised in that by means of the driver circuits of each semiconductor switch , when and provided the parallel free-wheeling diode is energized according to the assigned measured variable (Ud, Um), - according to a switch-off command encoded in the associated control signal (S), powering down occurs for a predetermined blocking time (T), and - otherwise powering up occurs independently of the value of the respectively associated control signal (S). - a number of actively switchable, unipolar semiconductor switches with a parallel free-wheeling diode in each case, - a control unit for actuating each semiconductor switch with a respectively assigned control signal (S), and - a number of driver circuits , which are interconnected between the control unit and the semiconductor switches , - a measured variable (Ud, Um) is detected for the energization state of each free-wheeling diode by means of the driver circuits in each case, and - each semiconductor switch is powered up by the driver circuits if the parallel free-wheeling diode is energized according to the assigned measured variable (Ud, Um), - according to a switch-off command encoded in the associated control signal (S), powering down occurs for a predetermined blocking time (T), and - otherwise powering up occurs independently of the value of the respectively associated control signal (S).
A mounting assembly for mounting an ultrasonic sensor in a mounting member , comprising: a fixation member for receiving said ultrasonic sensor ; and a shelter part disposed in front of the fixation member , the fixation member is provided with at least two protrusions on its outer surface adjacent to the shelter part ; each of said at least two protrusions is provided with at least one protruding part ; and the protruding part is configured such that it is able to be snapped onto the mounting member ; characterized in that each of said at least two protrusions is provided with several protruding parts which are distributed in the form of a ladder such that their protruding extents decrease progressively in a direction towards an inner side of the mounting member adaptable to snap the fixation member into mounting members of different thicknesses.
A UV-curable non-isocyanate polyurea polymer having one or more ethylenically unsaturated functional groups, wherein the ethylenically unsaturated functional group is attached to a nitrogen atom present in a backbone urea segment via -C(=O)- linkage, wherein the non-isocyanate polyurea polymer is prepared by: (i) providing an ethylenically unsaturated compound having one or more carboxylic acid functional groups; and (ii) reacting said ethylenically unsaturated compound having one or more carboxylic acid functional groups with a multi-carbodiimide polymer to form the non-isocyanate polyurea polymer. (i) providing an ethylenically unsaturated compound having one or more carboxylic acid functional groups; and (ii) reacting said ethylenically unsaturated compound having one or more carboxylic acid functional groups with a multi-carbodiimide polymer to form the non-isocyanate polyurea polymer.
A method for forming a fused metal nanostructured network, the method comprising, contacting metal nanowires with a fusing solution comprising a metal ion source providing metal ions wherein the metal ion source is a dissolved metal salt at a concentration from 0.0001M to 0.1M in the solution and/or an oxidizing agent effective to ionize a portion of the metal nanowires, a reducing agent source to reduce the metal ions from the metal ion source to their corresponding metal element to fuse the metal nanowires together to form the fused metal nanostructured network, wherein the contacting step comprises depositing the fusing solution on a substrate surface to form a film, with the metal nanowires either having been deposited onto the surface as a layer prior to the contacting step or the fusing solution further comprises the metal nanowires; and at least partially drying the film to form the fused metal nanostructured network, wherein the film with the substrate has a total transmission of visible light of at least about 91%. a metal ion source providing metal ions wherein the metal ion source is a dissolved metal salt at a concentration from 0.0001M to 0.1M in the solution and/or an oxidizing agent effective to ionize a portion of the metal nanowires, a reducing agent source to reduce the metal ions from the metal ion source to their corresponding metal element to fuse the metal nanowires together to form the fused metal nanostructured network, wherein the contacting step comprises depositing the fusing solution on a substrate surface to form a film, with the metal nanowires either having been deposited onto the surface as a layer prior to the contacting step or the fusing solution further comprises the metal nanowires; and at least partially drying the film to form the fused metal nanostructured network, wherein the film with the substrate has a total transmission of visible light of at least about 91%.