mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a grip surface of a glove , the method comprising: dipping a glove mold into a coagulant material; dipping the glove mold into a nitrile coating formulation to form an outer surface of the glove , wherein a biodegradable material is distributed throughout the nitrile coating formulation; vulcanizing at least the outer surface of the glove to form a protective outer surface; washing at least the outer surface of the glove with an enzyme solution; decomposing , by the enzyme solution, the biodegradable material that is distributed throughout the outer surface of the glove , thereby forming a grip surface of the glove comprising an open-cell structure within the outer surface; and drying the glove to form a final glove comprising the grip surface . dipping a glove mold into a coagulant material; dipping the glove mold into a nitrile coating formulation to form an outer surface of the glove , wherein a biodegradable material is distributed throughout the nitrile coating formulation; vulcanizing at least the outer surface of the glove to form a protective outer surface; washing at least the outer surface of the glove with an enzyme solution; decomposing , by the enzyme solution, the biodegradable material that is distributed throughout the outer surface of the glove , thereby forming a grip surface of the glove comprising an open-cell structure within the outer surface; and drying the glove to form a final glove comprising the grip surface .
Method for manufacturing an adsorption agent for drying compressed gas, characterised in that this method comprises the following steps: - the provision of a monolithic supporting structure; - the production of a coating suspension that comprises an adsorbent, whereby for the production of the coating suspension an adsorbent is selected which comprises a hydrophilic zeolite; - the application of the aforementioned coating suspension on the aforementioned supporting structure to form a coating; - the application of a thermal treatment to the supporting structure with the coating, in order to sinter the coating; - whereby the application of the aforementioned coating suspension on the aforementioned supporting structure comprises the step of flushing or perfusing the supporting structure with the coating suspension concerned; - whereby the perfusion of the supporting structure is done from bottom to top, or in other words in the opposite direction to gravity; - whereby the perfusion is realised by pumping means that pump the coating suspension upwards through the supporting structure; - whereby coating material is removed after the perfusion of the supporting structure with coating suspension; - whereby the removal of surplus coating material is realized by reversing the operating direction of the pumping means concerned; and - whereby a part of the surplus coating material is evacuated from the supporting structure by applying one or more pressure pulses of a purge gas through the channels of the supporting structure. - the provision of a monolithic supporting structure; - the production of a coating suspension that comprises an adsorbent, whereby for the production of the coating suspension an adsorbent is selected which comprises a hydrophilic zeolite; - the application of the aforementioned coating suspension on the aforementioned supporting structure to form a coating; - the application of a thermal treatment to the supporting structure with the coating, in order to sinter the coating; - whereby the application of the aforementioned coating suspension on the aforementioned supporting structure comprises the step of flushing or perfusing the supporting structure with the coating suspension concerned; - whereby the perfusion of the supporting structure is done from bottom to top, or in other words in the opposite direction to gravity; - whereby the perfusion is realised by pumping means that pump the coating suspension upwards through the supporting structure; - whereby coating material is removed after the perfusion of the supporting structure with coating suspension; - whereby the removal of surplus coating material is realized by reversing the operating direction of the pumping means concerned; and - whereby a part of the surplus coating material is evacuated from the supporting structure by applying one or more pressure pulses of a purge gas through the channels of the supporting structure.
An intraocular lens insertion device comprising: a main body including a lens placement portion configured to hold an intraocular lens without a load applied thereto, a tapered transition portion configured to deform said intraocular lens , a nozzle portion through which said intraocular lens is discharged, and a lens movement axis (A) that extends through said lens placement portion , said tapered transition portion and said nozzle portion ; and a lens push-out mechanism , including a slider and a plunger with a push-out rod , to push said intraocular lens out of said lens placement portion and through the nozzle portion , and said plunger having a proximal end and a distal end and being configured to push said intraocular lens along said lens movement axis (A) from said transition portion and through said nozzle , characterized by said slider having a guide groove and the push-out rod being slidable within said guide groove and the plunger being configured to move relative to the slider and said slider having a lens contact part that is larger in area than the distal end of said plunger and an operating part that projects outwardly from said main body , said slider being configured to move relative to said plunger along said lens movement axis (A) to push said intraocular lens from said lens placement portion into said tapered transition portion to fold said intraocular lens and said push-out rod being configured to move relative to the slider such that the distal end of the plunger protrudes beyond the lens contact part . a main body including a lens placement portion configured to hold an intraocular lens without a load applied thereto, a tapered transition portion configured to deform said intraocular lens , a nozzle portion through which said intraocular lens is discharged, and a lens movement axis (A) that extends through said lens placement portion , said tapered transition portion and said nozzle portion ; and a lens push-out mechanism , including a slider and a plunger with a push-out rod , to push said intraocular lens out of said lens placement portion and through the nozzle portion , and said plunger having a proximal end and a distal end and being configured to push said intraocular lens along said lens movement axis (A) from said transition portion and through said nozzle , characterized by said slider having a guide groove and the push-out rod being slidable within said guide groove and the plunger being configured to move relative to the slider and said slider having a lens contact part that is larger in area than the distal end of said plunger and an operating part that projects outwardly from said main body , said slider being configured to move relative to said plunger along said lens movement axis (A) to push said intraocular lens from said lens placement portion into said tapered transition portion to fold said intraocular lens and said push-out rod being configured to move relative to the slider such that the distal end of the plunger protrudes beyond the lens contact part .
Process for the workup of mixed acid and wastewater from the nitration of aromatics, in which the nitric acid present is reacted under adiabatic conditions by reaction with an aromatic, characterised in that a. at least one waste stream component is provided, selected from waste acid (mixed acid) generated during the nitration, acidic washing water from the workup of crude nitroaromatics, and dilute nitric acid generated in an off-gas treatment in the course of the nitration, b. the at least one waste stream component is mixed with re-concentrated sulfuric acid, c. an aromatic is metered in to the mixture in stoichiometric excess relative to the nitric acid, d. the reaction mixture obtained is reacted in an adiabatically operated reactor, e. the organic phase obtained is separated from the sulfuric acid phase in a separator, f. the sulfuric acid phase is concentrated under vacuum, and g. at least one partial stream of the re-concentrated sulfuric acid from step g) is employed in step b). a. at least one waste stream component is provided, selected from waste acid (mixed acid) generated during the nitration, acidic washing water from the workup of crude nitroaromatics, and dilute nitric acid generated in an off-gas treatment in the course of the nitration, b. the at least one waste stream component is mixed with re-concentrated sulfuric acid, c. an aromatic is metered in to the mixture in stoichiometric excess relative to the nitric acid, d. the reaction mixture obtained is reacted in an adiabatically operated reactor, e. the organic phase obtained is separated from the sulfuric acid phase in a separator, f. the sulfuric acid phase is concentrated under vacuum, and g. at least one partial stream of the re-concentrated sulfuric acid from step g) is employed in step b).
A seal structure comprising: a body having a first outer surface , wherein the body defines a cavity that comprises a back surface and is open along the first outer surface ; wherein the seal structure includes a protruding portion projecting outward beyond an area of the first outer surface that surrounds the protruding portion , wherein the protruding portion at least partially surrounds the cavity , wherein an inner surface of the protruding portion defines at least a portion of a channel , the protruding portion being suitable to engage and at least partially deform into the channel in response to a load generated by pressing an outer surface of the protruding portion against a contact surface of a contact member to provide a seal between the body and the contact member ; wherein the first outer surface of the body is suitable to face towards the contact surface of the contact member during operation of the seal structure characterized in that the seal structure is integrally formed within the body as a monolithic object. a body having a first outer surface , wherein the body defines a cavity that comprises a back surface and is open along the first outer surface ; wherein the seal structure includes a protruding portion projecting outward beyond an area of the first outer surface that surrounds the protruding portion , wherein the protruding portion at least partially surrounds the cavity , wherein an inner surface of the protruding portion defines at least a portion of a channel , the protruding portion being suitable to engage and at least partially deform into the channel in response to a load generated by pressing an outer surface of the protruding portion against a contact surface of a contact member to provide a seal between the body and the contact member ; wherein the first outer surface of the body is suitable to face towards the contact surface of the contact member during operation of the seal structure characterized in that the seal structure is integrally formed within the body as a monolithic object.
Vehicle cooling system for a rail vehicle, - wherein the vehicle cooling system comprises a cooler , through which cooling air can flow, for cooling at least one main component, to which cooler is attached downstream at least one fan room with in each case one fan , - wherein the at least one fan room has in each case one main outlet arranged downstream from the respective fan , through which an outlet air is able to flow out of the vehicle cooling system , - wherein the at least one fan room has in each case one secondary outlet arranged downstream from the respective fan , through which a secondary component cooling air for cooling at least one secondary component of the rail vehicle can flow out, - wherein the vehicle cooling system has an exhaust air duct with an exhaust air outlet , through which the secondary component cooling air from the secondary outlet of the at least one fan room can be supplied to the at least one secondary component , and - wherein the vehicle cooling system comprises a control device for controlling the cooling of the secondary component with the secondary component cooling air , characterised in that by means of the control device a flow cross-section (S a , S b ) of the main outlet of the at least one fan room can be altered, wherein in a full load state of the vehicle cooling system the flow cross-section (S a , S b ) of the main outlet is maximised and in one of the partial states of the vehicle cooling system the flow cross-section (S a , S b ) of the main outlet is reduced. - wherein the vehicle cooling system comprises a cooler , through which cooling air can flow, for cooling at least one main component, to which cooler is attached downstream at least one fan room with in each case one fan , - wherein the at least one fan room has in each case one main outlet arranged downstream from the respective fan , through which an outlet air is able to flow out of the vehicle cooling system , - wherein the at least one fan room has in each case one secondary outlet arranged downstream from the respective fan , through which a secondary component cooling air for cooling at least one secondary component of the rail vehicle can flow out, - wherein the vehicle cooling system has an exhaust air duct with an exhaust air outlet , through which the secondary component cooling air from the secondary outlet of the at least one fan room can be supplied to the at least one secondary component , and - wherein the vehicle cooling system comprises a control device for controlling the cooling of the secondary component with the secondary component cooling air ,
A peptide having high affinity for human PD-L1 protein, characterized in amino acid sequence of SEQ.ID.NO.1, SEQ.ID.NO.3 or SEQ.ID.NO.4, or in a tandem or branched peptide with a single repeat or multiple repeats of SEQ.ID.NO.1, SEQ.ID.NO.3 and SEQ.ID.NO.4 having an amino acid sequence of SEQ.ID.NO.5.
A closure (a, b, c, d) for an orthosis, in particular a quick-release closure for an orthosis, comprising an attachment part (1, 1', 1", 1′′′, 1ʺʺ) , and a retaining portion, wherein the attachment part(1, 1', 1", 1′′′, 1ʺʺ) can be detachably fastened to the retaining portion , wherein the attachment part (1, 1', 1", 1′′′, 1"") has at least two tuck-in flaps which are connected to one another at a first end on a base (2, 2', 2", 2′′′, 2ʺʺ) of the attachment part (1, 1', 1", 1′′′, 1ʺʺ) and delimit a receptacle region of the attachment part (1, 1', 1", 1′′′, 1ʺʺ) with respect to two opposite sides, wherein the retaining portion is designed such that, when the attachment part (1, 1', 1", 1′′′, 1ʺʺ) is fastened thereto, it is held in the receptacle region between the two tuck-in flaps , wherein the retaining portion is part of a frame or a framework or a rail or another part of an orthosis, wherein the retaining portion has at least one recess , wherein at least one of the tuck-in flaps has at least one latching element , and wherein the latching element engages in the recess forming an indentation when the attachment part (1, 1', 1", 1′′′, 1ʺʺ) is slid onto the retaining portion , characterized in that the recess is associated with an edge of the frame or of the framework or of the rail or of the other part of an orthosis, and an attachment part guide is formed on the edge in the region of the recess , and in that the attachment part guide is formed by a receiving funnel narrowing in the direction of the recess . the recess is associated with an edge of the frame or of the framework or of the rail or of the other part of an orthosis, and an attachment part guide is formed on the edge in the region of the recess , and in that the attachment part guide is formed by a receiving funnel narrowing in the direction of the recess .
- A washing machine comprising a tub wherein the washing-drying processes are performed; a detergent dispenser that has at least one receptacle wherein a liquid detergent or a softener is stored; a housing wherein the detergent dispenser is placed and that has a tub outlet ; a dosing unit comprising - a hydraulic pump that enables the liquid detergent or the softener stored in the detergent dispenser to be dosed in order to be transferred in predetermined amounts to the washing environment in the tub for the purposes of main washing and rinsing and at least one dosing water inlet ; - at least one valve controlled by a control unit to direct the water taken from the water mains through the at least one dosing water inlet for dosing the liquid detergent or the softener at a predetermined time in a predetermined amount according to the washing program, characterized in that the dosing unit further comprises - an impeller that has more than one impeller fin , that rotates around its axis as the water taken from the dosing water inlet strikes the fins thereof, that transfers the rotational movement to the hydraulic pump , and that enables the hydraulic pump to be operated with the dynamic pressure of the water. - a hydraulic pump that enables the liquid detergent or the softener stored in the detergent dispenser to be dosed in order to be transferred in predetermined amounts to the washing environment in the tub for the purposes of main washing and rinsing and at least one dosing water inlet ; - at least one valve controlled by a control unit to direct the water taken from the water mains through the at least one dosing water inlet for dosing the liquid detergent or the softener at a predetermined time in a predetermined amount according to the washing program, characterized in that the dosing unit further comprises - an impeller that has more than one impeller fin , that rotates around its axis as the water taken from the dosing water inlet strikes the fins thereof, that transfers the rotational movement to the hydraulic pump , and that enables the hydraulic pump to be operated with the dynamic pressure of the water.
An injector in particular suitable for injecting an intraocular lens into an eye or for implanting a corneal endothelial tissue into an eye, comprising an elongate injector body with piston passage , in which an injector piston rod having a screw thread is guided in a longitudinally displaceable manner, wherein the injector is provided with two operating modes for the displacement of the injector piston rod , and is able to be switched between said modes, wherein the first operating mode defines a pushing operation and the second operating mode defines a screwing operation, characterized in that the injector body has at least one retractable and deployable wing grip , wherein the operating mode is set to pushing operation by the deployed position and the operating mode is set to screwing operation by the retracted position.
A catheter system for sequential deployment of a stent or prosthesis comprising a first retaining sleeve , a second retaining sleeve , a first catheter shaft , a second catheter shaft , a nose cone , a back mount , and a stent holder , wherein: - the stent or prosthesis is retained by the first retaining sleeve and the second retaining sleeve ; - the first retaining sleeve is connected to the nose cone ; - the nose cone is connected to the first catheter shaft ; - the first catheter shaft slides within the second catheter shaft ; - a front stop is mounted at a first end of the second catheter shaft ; - the stent holder sits on the second catheter shaft and can slide freely along the second catheter shaft ; - the back mount is firmly connected to the second catheter shaft ; - the second retaining sleeve is connected to the back mount ; and - a compression spring is mounted on the second catheter shaft between the stent holder and the back mount . - the stent or prosthesis is retained by the first retaining sleeve and the second retaining sleeve ; - the first retaining sleeve is connected to the nose cone ; - the nose cone is connected to the first catheter shaft ; - the first catheter shaft slides within the second catheter shaft ; - a front stop is mounted at a first end of the second catheter shaft ; - the stent holder sits on the second catheter shaft and can slide freely along the second catheter shaft ; - the back mount is firmly connected to the second catheter shaft ; - the second retaining sleeve is connected to the back mount ; and - a compression spring is mounted on the second catheter shaft between the stent holder and the back mount .
A process for the surface treatment of titanium dioxide pigments, comprising the steps in the following order: (a) forming an aqueous suspension of titanium dioxide pigments; (b) precipitating a layer of alumina phosphate on the surface of the pigments; (c) precipitating a layer of alumina over the layer of alumina phosphate; (d) precipitating a layer of magnesium oxide over the layer of alumina, wherein the precipitating of the layer of magnesium oxide comprises adding a magnesium source to the aqueous suspension after step (c) and adding a basic alumina source to the suspension during the addition of magnesium; and (e) recovering the titanium dioxide pigments from the suspension. (a) forming an aqueous suspension of titanium dioxide pigments; (b) precipitating a layer of alumina phosphate on the surface of the pigments; (c) precipitating a layer of alumina over the layer of alumina phosphate; (d) precipitating a layer of magnesium oxide over the layer of alumina, wherein the precipitating of the layer of magnesium oxide comprises adding a magnesium source to the aqueous suspension after step (c) and adding a basic alumina source to the suspension during the addition of magnesium; and (e) recovering the titanium dioxide pigments from the suspension.
An integrated circuit system , comprising: an active layer fabricated on a front side of a semiconductor die ; an electrical component layer disposed on a back side of the semiconductor die, the electrical component layer including one or more passive components (3550.1, 3550.2); wherein the semiconductor die comprises a thru silicon via , TSV, formed therein, the TSV configured to electrically connect the active layer and the electrical component layer; and a measurement layer disposed on the backside of the semiconductor die and having channels formed therein, the measurement layer configured to analyze a fluid being passed through the channels; wherein the measurement layer includes a conducting via formed therein, the conducting via configured to electrically connect the measuring layer with the other layers of the system. an active layer fabricated on a front side of a semiconductor die ; an electrical component layer disposed on a back side of the semiconductor die, the electrical component layer including one or more passive components (3550.1, 3550.2); wherein the semiconductor die comprises a thru silicon via , TSV, formed therein, the TSV configured to electrically connect the active layer and the electrical component layer; and a measurement layer disposed on the backside of the semiconductor die and having channels formed therein, the measurement layer configured to analyze a fluid being passed through the channels; wherein the measurement layer includes a conducting via formed therein, the conducting via configured to electrically connect the measuring layer with the other layers of the system.