mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle having all-wheel drive, the motor vehicle comprising: - a first wheel axle designed as a rear axle having wheels arranged thereon, - a second wheel axle arranged at a distance from the first wheel axle in the longitudinal direction of the motor vehicle and designed as a front axle having wheels arranged thereon, - a drive unit which is arranged between the first wheel axis and the second wheel axis and has an internal combustion engine , the internal combustion engine comprising at least one horizontally oriented crankshaft extending in the longitudinal direction of the motor vehicle , and - a continuously variable transmission system which interacts with the crankshaft of the drive unit and drives the wheels of the first wheel axle and the wheels of the second wheel axle , - the crankshaft being set in rotation by at least one reciprocating piston of the internal combustion engine and interacting with a first pair of conical disks of the transmission system, - the first pair of conical disks of the transmission system being operatively connected to a second pair of conical disks of the transmission system by means of an endless element , - the second pair of conical disks being connected via a first drive shaft to a first differential of the first wheel axle and via a second drive shaft to a second differential of the second wheel axle , characterized in that the second drive shaft extends below an outer housing wall of the cylinder crankcase of the internal combustion engine which accommodates the at least one reciprocating piston , the outer housing wall extending at an acute angle α obliquely to the horizontal . - a first wheel axle designed as a rear axle having wheels arranged thereon, - a second wheel axle arranged at a distance from the first wheel axle in the longitudinal direction of the motor vehicle and designed as a front axle having wheels arranged thereon, - a drive unit which is arranged between the first wheel axis and the second wheel axis and has an internal combustion engine , the internal combustion engine comprising at least one horizontally oriented crankshaft extending in the longitudinal direction of the motor vehicle , and - a continuously variable transmission system which interacts with the crankshaft of the drive unit and drives the wheels of the first wheel axle and the wheels of the second wheel axle , - the crankshaft being set in rotation by at least one reciprocating piston of the internal combustion engine and interacting with a first pair of conical disks of the transmission system, - the first pair of conical disks of the transmission system being operatively connected to a second pair of conical disks of the transmission system by means of an endless element , - the second pair of conical disks being connected via a first drive shaft to a first differential of the first wheel axle and via a second drive shaft to a second differential of the second wheel axle ,
Process for the production of glycidol (GLD) comprising the steps: (a) feeding a starting material over a heterogeneous catalyst into a fixed-bed continuous flow reactor, (b) heating said mixture at a temperature greater than 250°C to obtain glycidol, (c) flowing N 2 as a carrier gas and glycerol (GL) as a feed with total gas hourly space velocity 1000-2500 h -1 , and (d) collecting the GLD product, wherein the starting material is GL solution, wherein the catalyst comprises at least one alkali metal compound in an amount of 1 to 60 wt% supported on aluminosilicate zeolite. (a) feeding a starting material over a heterogeneous catalyst into a fixed-bed continuous flow reactor, (b) heating said mixture at a temperature greater than 250°C to obtain glycidol, (c) flowing N 2 as a carrier gas and glycerol (GL) as a feed with total gas hourly space velocity 1000-2500 h -1 , and (d) collecting the GLD product, wherein the starting material is GL solution, wherein the catalyst comprises at least one alkali metal compound in an amount of 1 to 60 wt% supported on aluminosilicate zeolite.
A grip apparatus for exercise equipment, the grip apparatus comprising: a first annular member I having a first annular sidewall and a first flange extending radially inwardly from the first annular sidewall; a second annular member I having a second annular sidewall and a second flange extending radially outwardly from the second annular sidewall, a diameter of the second annular sidewall being less than a diameter of the first annular sidewall, the second annular member being positioned within the first annular member whereby the first annular sidewall, the second annular sidewall, the first flange and the second flange define together an annular chamber; a handle member extending between opposing portions of the second annular sidewall; a bearing positioned within the annular chamber, the first annular sidewall frictionally engaging a first race of the bearing and the second annular sidewall frictionally engaging a second race of the bearing, whereby the second annular member is freely rotatable relative to the first annular member; wherein the first race is an outer race of the bearing; wherein the second race is an inner race of the bearing; characterized in that an inner surface of the first annular sidewall frictionally engages the outer race of the bearing and the outer surface of the second annular sidewall frictionally engages the inner race of the bearing; and wherein the second annular member is swaged outwardly radially against the inner race. a first annular member I having a first annular sidewall and a first flange extending radially inwardly from the first annular sidewall; a second annular member I having a second annular sidewall and a second flange extending radially outwardly from the second annular sidewall, a diameter of the second annular sidewall being less than a diameter of the first annular sidewall, the second annular member being positioned within the first annular member whereby the first annular sidewall, the second annular sidewall, the first flange and the second flange define together an annular chamber; a handle member extending between opposing portions of the second annular sidewall; a bearing positioned within the annular chamber, the first annular sidewall frictionally engaging a first race of the bearing and the second annular sidewall frictionally engaging a second race of the bearing, whereby the second annular member is freely rotatable relative to the first annular member; wherein the first race is an outer race of the bearing; wherein the second race is an inner race of the bearing; characterized in that an inner surface of the first annular sidewall frictionally engages the outer race of the bearing and the outer surface of the second annular sidewall frictionally engages the inner race of the bearing; and wherein the second annular member is swaged outwardly radially against the inner race.
A method for producing porous cellulose particles, comprising: (a) dissolving cellulose diacetate into a solvent selected from an acetic acid aqueous solution and cyclohexanone to prepare a cellulose diacetate solution; (b) dispersing the cellulose diacetate solution into a medium immiscible with the cellulose diacetate solution selected from water, toluene, o-dichlorobenzene and xylene to obtain a dispersed system; (c) cooling the dispersed system; (d) adding a poor solvent selected from water, methanol and methanol aqueous solution to the cooled dispersed system to precipitate cellulose diacetate particles; and (e) saponifying the cellulose diacetate particles. (a) dissolving cellulose diacetate into a solvent selected from an acetic acid aqueous solution and cyclohexanone to prepare a cellulose diacetate solution; (b) dispersing the cellulose diacetate solution into a medium immiscible with the cellulose diacetate solution selected from water, toluene, o-dichlorobenzene and xylene to obtain a dispersed system; (c) cooling the dispersed system; (d) adding a poor solvent selected from water, methanol and methanol aqueous solution to the cooled dispersed system to precipitate cellulose diacetate particles; and (e) saponifying the cellulose diacetate particles.
An anti-CSFIR antibody for use in a method of treating cancer in a subject, the method comprising administering to the subject the anti-CSFIR antibody and at least one immune stimulating agent, wherein the anti-CSFIR antibody binds human CSF1R and is selected from: i) an antibody comprising a heavy chain comprising the sequence of SEQ ID NO: 39 and a light chain comprising the sequence of SEQ ID NO: 46; ii) an antibody comprising a heavy chain comprising a heavy chain (HC) CDR1 having the sequence of SEQ ID NO: 15, an HC CDR2 having the sequence of SEQ ID NO: 16, and an HC CDR3 having the sequence of SEQ ID NO: 17, and a light chain comprising a light chain (LC) CDR1 having the sequence of SEQ ID NO: 18, a LC CDR2 having the sequence of SEQ ID NO: 19, and a LC CDR3 having the sequence of SEQ ID NO: 20; and iii) an antibody comprising a heavy chain comprising the sequence of SEQ ID NO: 53 and a light chain comprising the sequence of SEQ ID NO: 60; and wherein the at least one immune stimulating agent comprises an agonist anti-CD40 antibody. i) an antibody comprising a heavy chain comprising the sequence of SEQ ID NO: 39 and a light chain comprising the sequence of SEQ ID NO: 46; ii) an antibody comprising a heavy chain comprising a heavy chain (HC) CDR1 having the sequence of SEQ ID NO: 15, an HC CDR2 having the sequence of SEQ ID NO: 16, and an HC CDR3 having the sequence of SEQ ID NO: 17, and a light chain comprising a light chain (LC) CDR1 having the sequence of SEQ ID NO: 18, a LC CDR2 having the sequence of SEQ ID NO: 19, and a LC CDR3 having the sequence of SEQ ID NO: 20; and iii) an antibody comprising a heavy chain comprising the sequence of SEQ ID NO: 53 and a light chain comprising the sequence of SEQ ID NO: 60;
A light emitting device, comprising: a substrate ; a light emitting structure including lower and upper semiconductor layers having different conductive types, and an active layer disposed between the lower and upper semiconductor layers , the light emitting structure being disposed on the substrate; a first electrode layer disposed on the upper semiconductor layer ; a second electrode layer disposed on the lower semiconductor layer ; and a current blocking layer disposed between the first electrode layer and the upper semiconductor layer , a conductive layer disposed to surround an upper part and a side part of the current blocking layer , wherein the current blocking layer is disposed between the conductive layer and the upper semiconductor layer , wherein the first electrode layer includes a first adhesive layer and a first bonding layer overlapping each other, wherein the second electrode layer includes a second adhesive layer and a second bonding layer overlapping each other, wherein the first electrode layer overlaps with the current blocking layer in a vertical direction, and wherein a reflective layer is not disposed between the second adhesive layer and the second bonding layer , a reflective layer is not disposed between the first adhesive layer and the first bonding layer , a width of the current blocking layer implemented by a distributed Bragg reflector is 1 to 10 fold a width of the first electrode layer . a substrate ; a light emitting structure including lower and upper semiconductor layers having different conductive types, and an active layer disposed between the lower and upper semiconductor layers , the light emitting structure being disposed on the substrate; a first electrode layer disposed on the upper semiconductor layer ; a second electrode layer disposed on the lower semiconductor layer ; and a current blocking layer disposed between the first electrode layer and the upper semiconductor layer , a conductive layer disposed to surround an upper part and a side part of the current blocking layer , wherein the current blocking layer is disposed between the conductive layer and the upper semiconductor layer , wherein the first electrode layer includes a first adhesive layer and a first bonding layer overlapping each other, wherein the second electrode layer includes a second adhesive layer and a second bonding layer overlapping each other, wherein the first electrode layer overlaps with the current blocking layer in a vertical direction, and wherein a reflective layer is not disposed between the second adhesive layer and the second bonding layer , a reflective layer is not disposed between the first adhesive layer and the first bonding layer , a width of the current blocking layer implemented by a distributed Bragg reflector is 1 to 10 fold a width of the first electrode layer .
A setting tool system , comprising: a housing, comprising: a first conduit configured to receive one or more anchoring systems at a first end ; a second conduit comprising a weighted shaft configured to freely move within the length of the second conduit , wherein the first and second conduits merge at a second end opposite the first end ; and a head comprising an opening at the second end, wherein each of the one or more anchoring systems inserted at the first end are individually received at the opening at the second end , and wherein a top surface of each of the one or more anchoring systems contacts the weighted shaft , and wherein a bottom surface of each of the one or more anchoring systems contacts an external surface , and wherein each of the one or more anchoring systems are fastened via the weighted shaft to the external surface , characterized in that the second conduit is at least partially separated from the first conduit by an interior wall . a first conduit configured to receive one or more anchoring systems at a first end ; a second conduit comprising a weighted shaft configured to freely move within the length of the second conduit , wherein the first and second conduits merge at a second end opposite the first end ; and a head comprising an opening at the second end, wherein each of the one or more anchoring systems inserted at the first end are individually received at the opening at the second end , and wherein a top surface of each of the one or more anchoring systems contacts the weighted shaft , and wherein a bottom surface of each of the one or more anchoring systems contacts an external surface , and wherein each of the one or more anchoring systems are fastened via the weighted shaft to the external surface , characterized in that the second conduit is at least partially separated from the first conduit by an interior wall .
Method for comminuting a thermoplastic polymer, and for producing a powdery substance with a predefined grain distribution therefrom, having the following method steps: - predefining a desired grain distribution of the powdery substance, - comminuting the thermoplastic polymer, provided in lump form, in a comminution apparatus to produce a starting powder comprising grains, - sieving said starting powder at least once until the powdery substance with the predefined grain distribution is obtained, wherein a release agent is introduced into the comminution apparatus in the comminution step, wherein the release agent has the form of a fine powder and coats the grains of the starting powder in the manner of dust, thereby reducing the starting powder's tack and agglomerate formation capability, wherein a) the comminution step is carried out in a mill that is part of the comminution apparatus and during this process a coolant is fed into the comminution apparatus at a temperature < -50°C, or b) the comminution step uses a spray tower, in which the thermoplastic polymer is comminuted by melting or dissolving and then atomising by means of at least one spray nozzle, wherein an coolant is fed into the comminution apparatus at a temperature < -50°C. - predefining a desired grain distribution of the powdery substance, - comminuting the thermoplastic polymer, provided in lump form, in a comminution apparatus to produce a starting powder comprising grains, - sieving said starting powder at least once until the powdery substance with the predefined grain distribution is obtained, wherein a release agent is introduced into the comminution apparatus in the comminution step, wherein the release agent has the form of a fine powder and coats the grains of the starting powder in the manner of dust, thereby reducing the starting powder's tack and agglomerate formation capability, wherein a) the comminution step is carried out in a mill that is part of the comminution apparatus and during this process a coolant is fed into the comminution apparatus at a temperature < -50°C, or b) the comminution step uses a spray tower, in which the thermoplastic polymer is comminuted by melting or dissolving and then atomising by means of at least one spray nozzle, wherein an coolant is fed into the comminution apparatus at a temperature < -50°C.
A method of processing an amniotic tissue for administration to a recipient patient, comprising the steps of: treating the amniotic tissue with a glutaraldehyde solution; rinsing the amniotic tissue with a first saline solution; contacting the amniotic tissue with a first backing layer and a second backing layer, wherein the amniotic tissue contains a second saline solution comprising a solvent and a dissociated salt; restraining the amniotic tissue and the first and second backing layers between a first plate and a second plate; pressing together the amniotic tissue and the first and second backing layers; and evaporating a portion of the solvent from a surface of the first or the second backing layer by flowing gas across the amniotic tissue and maintaining a temperature around the amniotic tissue at below about 40°C, wherein the first backing layer and the second backing layer are woven or nonwoven material that adsorbs moisture and allows for passage of the migrating moisture and ions. treating the amniotic tissue with a glutaraldehyde solution; rinsing the amniotic tissue with a first saline solution; contacting the amniotic tissue with a first backing layer and a second backing layer, wherein the amniotic tissue contains a second saline solution comprising a solvent and a dissociated salt; restraining the amniotic tissue and the first and second backing layers between a first plate and a second plate; pressing together the amniotic tissue and the first and second backing layers; and evaporating a portion of the solvent from a surface of the first or the second backing layer by flowing gas across the amniotic tissue and maintaining a temperature around the amniotic tissue at below about 40°C, wherein the first backing layer and the second backing layer are woven or nonwoven material that adsorbs moisture and allows for passage of the migrating moisture and ions.
A lighting device, comprising: an optical member comprising a light guide part and a three-dimensional effect portion , the light guide part having a first surface and a second surface opposite to the first surface , and the three-dimensional effect forming part arranged on the light guide part ; and a light source part irradiating a beam from a thickness direction of the light guide part to an intermediate portion of the light guide part , wherein the three-dimensional effect forming part comprises a pattern having multiple unit patterns that are sequentially arranged and have inclined surfaces each having an inclination angle with respect to the first surface or the second surface , wherein the multiple unit patterns of the pattern guide incident beams in the light guide part into a first surface direction toward which the first surface looks, or into a second surface direction toward which the second surface looks through reflection and refraction from the inclined surfaces, thereby implementing line-shaped beams of first paths crossing at right angles to each pattern extension direction of the multiple unit patterns , a housing supporting the optical member and the light source part ; wherein the light guide part comprises a bent portion bent in its thickness direction, characterized in that the lighting device further comprises: a driving part connected to the housing and the optical member such that the optical member can be bent wherein the bent portion is fixedly or temporarily bent by the driving part . an optical member comprising a light guide part and a three-dimensional effect portion , the light guide part having a first surface and a second surface opposite to the first surface , and the three-dimensional effect forming part arranged on the light guide part ; and a light source part irradiating a beam from a thickness direction of the light guide part to an intermediate portion of the light guide part , wherein the three-dimensional effect forming part comprises a pattern having multiple unit patterns that are sequentially arranged and have inclined surfaces each having an inclination angle with respect to the first surface or the second surface , wherein the multiple unit patterns of the pattern guide incident beams in the light guide part into a first surface direction toward which the first surface looks, or into a second surface direction toward which the second surface looks through reflection and refraction from the inclined surfaces, thereby implementing line-shaped beams of first paths crossing at right angles to each pattern extension direction of the multiple unit patterns , a housing supporting the optical member and the light source part ; wherein the light guide part comprises a bent portion bent in its thickness direction, characterized in that the lighting device further comprises: a driving part connected to the housing and the optical member such that the optical member can be bent wherein the bent portion is fixedly or temporarily bent by the driving part .