mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a mono-tin organic compound in the synthesis of sucrose-6-carboxylate, the mono-tin organic compound having a structure shown in formula : wherein R 1 , R 2 , and R 3 each are independently selected from the group consisting of C 1 to C 8 linear or branched saturated alkyl, C 2 to C 8 linear or branched unsaturated alkyl, C 3 to C 8 substituted or unsubstituted saturated cycloalkyl, C 3 to C 8 substituted or unsubstituted unsaturated cycloalkyl, and C 6 to C 12 aryl or substituted aryl; and R 4 is selected from the group consisting of C 1 to C 6 linear or branched saturated alkyl and C 6 to C 12 aryl or substituted aryl; and wherein the sucrose-6-carboxylate is synthesized by a method comprising: using the mono-tin organic compound as a catalyst and conducting a dehydration esterification on sucrose in a polar aprotic solvent to obtain a sucrose organotin ester-containing solution. wherein R 1 , R 2 , and R 3 each are independently selected from the group consisting of C 1 to C 8 linear or branched saturated alkyl, C 2 to C 8 linear or branched unsaturated alkyl, C 3 to C 8 substituted or unsubstituted saturated cycloalkyl, C 3 to C 8 substituted or unsubstituted unsaturated cycloalkyl, and C 6 to C 12 aryl or substituted aryl; and R 4 is selected from the group consisting of C 1 to C 6 linear or branched saturated alkyl and C 6 to C 12 aryl or substituted aryl; and
A method for marking workpieces comprising the steps of: A) providing the at least one workpiece , B) locally applying an ink for a marking to the workpiece , C) fixing the ink to produce the marking , characterized in that the workpiece is heated locally in a region with the marking during fixing and a temperature of at least 400 °C is applied to the ink when fixing occurs, and fixing is done in step C) - by means of a radiation flash and radiation of the radiation flash is incoherent and is absorbed in the ink and/or on a workpiece surface and as a result the temperature is applied for fixing, or - contact-free and by means of induction, or - by means of an electrical resistance, wherein electrodes are attached to the workpiece . A) providing the at least one workpiece , B) locally applying an ink for a marking to the workpiece , C) fixing the ink to produce the marking , characterized in that the workpiece is heated locally in a region with the marking during fixing and a temperature of at least 400 °C is applied to the ink when fixing occurs, and fixing is done in step C) - by means of a radiation flash and radiation of the radiation flash is incoherent and is absorbed in the ink and/or on a workpiece surface and as a result the temperature is applied for fixing, or - contact-free and by means of induction, or - by means of an electrical resistance, wherein electrodes are attached to the workpiece . - by means of a radiation flash and radiation of the radiation flash is incoherent and is absorbed in the ink and/or on a workpiece surface and as a result the temperature is applied for fixing, or - contact-free and by means of induction, or - by means of an electrical resistance, wherein electrodes are attached to the workpiece .
A method for on-boarding a network service descriptor, wherein the method comprises: • receiving, by a primary orchestrator, a cross-domain network service descriptor, NSD, on-boarding command from a sender (S101), • determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command an NSD identifier that corresponds to a management domain of a secondary orchestrator, determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command, a virtualized network function, VNF, packet identifier that corresponds to the management domain of the secondary orchestrator, wherein by the determination of the NSD identifier corresponding to the management domain of the secondary orchestrator together with the determination of the VNF packet identifier corresponding to the management domain of the secondary orchestrator it is determined that the secondary orchestrator needs to on-board the NSD corresponding to the management domain of the secondary orchestrator, • sending, by the primary orchestrator, to the secondary orchestrator a NSD on-boarding command carrying the determined NSD identifier and the determined VNF packet identifier that correspond to the management domain of the secondary orchestrator, wherein the NSD on-boarding command is used to instruct the secondary orchestrator to on-board the NSD corresponding to the NDS identifier (S105), wherein a management domain of the primary orchestrator is different from the management domain of the secondary orchestrator. • receiving, by a primary orchestrator, a cross-domain network service descriptor, NSD, on-boarding command from a sender (S101), • determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command an NSD identifier that corresponds to a management domain of a secondary orchestrator, determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command, a virtualized network function, VNF, packet identifier that corresponds to the management domain of the secondary orchestrator, wherein by the determination of the NSD identifier corresponding to the management domain of the secondary orchestrator together with the determination of the VNF packet identifier corresponding to the management domain of the secondary orchestrator it is determined that the secondary orchestrator needs to on-board the NSD corresponding to the management domain of the secondary orchestrator, • sending, by the primary orchestrator, to the secondary orchestrator a NSD on-boarding command carrying the determined NSD identifier and the determined VNF packet identifier that correspond to the management domain of the secondary orchestrator, wherein the NSD on-boarding command is used to instruct the secondary orchestrator to on-board the NSD corresponding to the NDS identifier (S105), wherein a management domain of the primary orchestrator is different from the management domain of the secondary orchestrator.
A flame retardant composition comprising: (i) from 5 wt. % to 99.5 wt. % of an inorganic flame retardant comprising aluminum trihydrate and/or magnesium hydroxide; and (ii) from 0.5 wt. % to 25 wt. % of a flame retardant synergist comprising: (a) a hydrotalcite; and (b) a clay; wherein the weight ratio of hydrotalcite: clay is in a range from 2:1 to 100:1. (i) from 5 wt. % to 99.5 wt. % of an inorganic flame retardant comprising aluminum trihydrate and/or magnesium hydroxide; and (ii) from 0.5 wt. % to 25 wt. % of a flame retardant synergist comprising: (a) a hydrotalcite; and (b) a clay; wherein the weight ratio of hydrotalcite: clay is in a range from 2:1 to 100:1. (a) a hydrotalcite; and (b) a clay;
A method for manufacturing a high temperature-resistant polyvinyl chloride adhesive tape, comprising: coating, as a hot melt, a UV-crosslinkable hot-melt pressure-sensitive adhesive onto a high temperature-resistant polyvinyl chloride film at a temperature of 130-150°C, and then crosslinking by UV irradiation with a set of UV lamps, wherein the high temperature-resistant polyvinyl chloride film comprises a liquid polymeric plasticizer, a solid polymeric plasticizer, and a heat stabilizer.
Arrangement comprising a contactor and a blower for an air temperature and humidity control device : wherein the contactor comprises a plurality of contact modules , each contact module having a porous sidewall configured to define an internal space through which a hygroscopic material (L) flows, wherein a first airstream (A1) passes over a first portion of the plurality of contact modules and a second airstream (A2) passes over a second portion of the plurality of contact modules ; characterized in that the blower comprises two sources for generating first and second airstreams (A1, A2), the first airstream (A1) having generally cool, dry air and the second airstream (A2) having generally hot, humid air, or the first airsteam (A1) includes return air provided from an adjacent air conditioned facility and the second airstream (A2) includes outdoor, ambient air; wherein the two sources for generating first and second airstreams (A1, A2) are configured such that each of the first and second airstreams (A1, A2) passes over a distinct portion of the contactor ; wherein the source of the first airstream (A1) is configured such that the first airstream (A1) passes over the sidewalls of a first portion of the plurality of contact modules , and the source of the second airstream (A2) is configured such that the second airstream (A2) passes over the sidewalls of a second portion of the plurality of contact modules . wherein the contactor comprises a plurality of contact modules , each contact module having a porous sidewall configured to define an internal space through which a hygroscopic material (L) flows, wherein a first airstream (A1) passes over a first portion of the plurality of contact modules and a second airstream (A2) passes over a second portion of the plurality of contact modules ; characterized in that the blower comprises two sources for generating first and second airstreams (A1, A2), the first airstream (A1) having generally cool, dry air and the second airstream (A2) having generally hot, humid air, or the first airsteam (A1) includes return air provided from an adjacent air conditioned facility and the second airstream (A2) includes outdoor, ambient air; wherein the two sources for generating first and second airstreams (A1, A2) are configured such that each of the first and second airstreams (A1, A2) passes over a distinct portion of the contactor ; wherein the source of the first airstream (A1) is configured such that the first airstream (A1) passes over the sidewalls of a first portion of the plurality of contact modules , and the source of the second airstream (A2) is configured such that the second airstream (A2) passes over the sidewalls of a second portion of the plurality of contact modules .
A head-mounted display, HMD, apparatus comprising: a face plate having a first surface formed to face a user's face, a support part configured to be coupled with at least a part of the face plate to arrange the face plate on the user's face, wherein a cavity structure is formed on a second surface of the face plate which is opposite to the first surface of the face plate so that an external electronic device is mounted on the second surface of the face plate and within the cavity structure, wherein the face plate includes: two position adjustment units , each formed on left and right side of the outer surface of the face plate, respectively, configured to adjust a position of the external electronic device by an operation of the user, and a gear module including a horizontal bevel gear connected with and disposed between the display position adjustment units , the horizontal bevel gear being configured to transmit a force to both of the display position adjustment units in response to a rotation of at least one display position adjustment unit. a face plate having a first surface formed to face a user's face, a support part configured to be coupled with at least a part of the face plate to arrange the face plate on the user's face, wherein a cavity structure is formed on a second surface of the face plate which is opposite to the first surface of the face plate so that an external electronic device is mounted on the second surface of the face plate and within the cavity structure, wherein the face plate includes: two position adjustment units , each formed on left and right side of the outer surface of the face plate, respectively, configured to adjust a position of the external electronic device by an operation of the user, and a gear module including a horizontal bevel gear connected with and disposed between the display position adjustment units , the horizontal bevel gear being configured to transmit a force to both of the display position adjustment units in response to a rotation of at least one display position adjustment unit. two position adjustment units , each formed on left and right side of the outer surface of the face plate, respectively, configured to adjust a position of the external electronic device by an operation of the user, and a gear module including a horizontal bevel gear connected with and disposed between the display position adjustment units , the horizontal bevel gear being configured to transmit a force to both of the display position adjustment units in response to a rotation of at least one display position adjustment unit.
A kettlebell type apparatus for gymnastics comprising: - a substantially spherical shaped body which defines an inner cavity ; and - a rigid handle fixed to the upper part of the body ; wherein the cavity is partially filled with a filling material that comprises at least one liquid (L), and wherein the handle comprises a gripping portion ; wherein the body is provided with a seat comprising a tubular element , which extends from the upper part of the body , the tubular element acting as a mouth for introducing said filling material (L) into said cavity , said tubular element is in fluid communication with the inner cavity of the body , the handle comprising at least a coupling portion , that extends from the gripping portion , a length of said coupling portion being received in said tubular element ; the coupling portion being sealed on the tubular element , and the body having a structure such as to maintain its shape, substantially spherical, with or without the filling material in the cavity , during use; the apparatus being characterised in that the body is formed by a single flexible layer made of polymer material. - a substantially spherical shaped body which defines an inner cavity ; and - a rigid handle fixed to the upper part of the body ; wherein the cavity is partially filled with a filling material that comprises at least one liquid (L), and wherein the handle comprises a gripping portion ; wherein the body is provided with a seat comprising a tubular element , which extends from the upper part of the body , the tubular element acting as a mouth for introducing said filling material (L) into said cavity , said tubular element is in fluid communication with the inner cavity of the body , the handle comprising at least a coupling portion , that extends from the gripping portion , a length of said coupling portion being received in said tubular element ; the coupling portion being sealed on the tubular element , and the body having a structure such as to maintain its shape, substantially spherical, with or without the filling material in the cavity , during use; the apparatus being characterised in that the body is formed by a single flexible layer made of polymer material.
Mixture comprising - at least one aminically crosslinkable rubber and - a crosslinking system consisting of at least one crosslinker and optionally at least one vulcanization accelerator, wherein the at least one crosslinker comprises polyethyleneimine, and wherein the total content of the vulcanization accelerators diphenylguanidine (DPG), di-ortho-tolyl-guanidine (DOTG) and 1-(ortho-tolyl)biguanide of the crosslinking system in the mixture is not more than 0.4 phr, preferably not more than 0.2 phr, particularly preferably not more than 0.1 phr and very particularly preferably not more than 0.01 phr. - at least one aminically crosslinkable rubber and - a crosslinking system consisting of at least one crosslinker and optionally at least one vulcanization accelerator, wherein the at least one crosslinker comprises polyethyleneimine, and wherein the total content of the vulcanization accelerators diphenylguanidine (DPG), di-ortho-tolyl-guanidine (DOTG) and 1-(ortho-tolyl)biguanide of the crosslinking system in the mixture is not more than 0.4 phr, preferably not more than 0.2 phr, particularly preferably not more than 0.1 phr and very particularly preferably not more than 0.01 phr.
A semiconductor humidity sensor device, comprising: - a substrate comprising a main surface , - a sensor region on, above, or embedded in the main surface , - a sensor element in the sensor region , and - a coating layer above the main surface , the coating layer encompassing the sensor region , - wherein the sensor element is completely covered by the coating layer , - the coating layer is formed of a material that can be penetrated by moisture, - a trench is formed in the coating layer around the sensor region , the trench providing drainage of a liquid from the coating layer , - the coating layer has an upper surface facing away from the substrate , the upper surface being plane in an area surrounded by the trench , and - the sensor element is a humidity sensor, characterized in that - a hydrophilic liner is arranged between the main surface and the coating layer , and - the hydrophilic liner is exposed in the trench . - a substrate comprising a main surface , - a sensor region on, above, or embedded in the main surface , - a sensor element in the sensor region , and - a coating layer above the main surface , the coating layer encompassing the sensor region , - wherein the sensor element is completely covered by the coating layer , - the coating layer is formed of a material that can be penetrated by moisture, - a trench is formed in the coating layer around the sensor region , the trench providing drainage of a liquid from the coating layer , - the coating layer has an upper surface facing away from the substrate , the upper surface being plane in an area surrounded by the trench , and - the sensor element is a humidity sensor, characterized in that - a hydrophilic liner is arranged between the main surface and the coating layer , and - the hydrophilic liner is exposed in the trench .
Kit-of-parts for initiating an action by an active implantable medical device, AIMD, configured for being implanted in a body of a patient triggered by an external triggering unit configured to be located outside the body of the patient, the kit-of-parts comprising, (A) the AIMD configured for being implanted in the body of a patient and comprising an encapsulation unit defining an inner volume sealingly separated from an outside of the encapsulation unit by walls , wherein the inner volume comprises an action trigger configured for initiating an action by the AIMD , upon reception of a starting signal from the external triggering unit , wherein the action trigger is electrically coupled to an implantable control logic lodged in the inner volume and configured for controlling operations of the AIMD, (B) the external triggering unit comprising an external emitter configured for emitting the starting signal to the action trigger, wherein • the external emitter comprises one or more sources of light configured for emitting the starting signal in the form of an optical starting signal having a wavelength comprised between 350 and 2200 nm, preferably between 400 and 1500 nm, • the walls of the encapsulation unit comprise a transparent wall portion which is transparent to the optical starting signal, and • the action trigger is an optical action trigger comprising one or more photodetectors facing the transparent wall portion and configured for transforming the optical starting signal into an electrical signal, which serves to initiate the action by the AIMD, characterized in that , the optical action trigger is idle and does not consume any power as long as the one or more photodetectors do not receive an optical starting signal . (A) the AIMD configured for being implanted in the body of a patient and comprising an encapsulation unit defining an inner volume sealingly separated from an outside of the encapsulation unit by walls , wherein the inner volume comprises an action trigger configured for initiating an action by the AIMD , upon reception of a starting signal from the external triggering unit , wherein the action trigger is electrically coupled to an implantable control logic lodged in the inner volume and configured for controlling operations of the AIMD, (B) the external triggering unit comprising an external emitter configured for emitting the starting signal to the action trigger, • the external emitter comprises one or more sources of light configured for emitting the starting signal in the form of an optical starting signal having a wavelength comprised between 350 and 2200 nm, preferably between 400 and 1500 nm, • the walls of the encapsulation unit comprise a transparent wall portion which is transparent to the optical starting signal, and • the action trigger is an optical action trigger comprising one or more photodetectors facing the transparent wall portion and configured for transforming the optical starting signal into an electrical signal, which serves to initiate the action by the AIMD,
A connection device for receiving at least one filter module which is connectable to the connection device by moving from a proximal position into a distal receiving position along a direction (E), in particular a tubular filter module, having at least one lateral connector, in particular a radial connector , comprising at least one first connecting apparatus having a connector piece with an inner lumen exhibiting a proximal end facing the filter module and a distal end facing the connection device in the receiving position, wherein the proximal end of the connector piece is designed to enable a connection of the connector piece to the lateral, in particular radial connector of the filter module, and having at least one first and one second guide member exhibiting a respective proximal end and distal end which define a receiving area of the connecting apparatus for receiving a filter module, in particular a tubular filter module , wherein at least the first guide member exhibits a side directed toward the receiving area which has at least one guide surface running from the proximal end to the distal end of the first guide member and connecting to the proximal end of the connector piece , characterized in that the side of the guide member facing the guide surface directed toward the receiving area is in a cross section S-shaped, wherein the S-shape results from two sequentially assembled curved sections (R1, R2) and the cross section coincides with an area that extends through the receiving area and both of the guide members of the connecting apparatus. at least one first connecting apparatus having a connector piece with an inner lumen exhibiting a proximal end facing the filter module and a distal end facing the connection device in the receiving position, wherein the proximal end of the connector piece is designed to enable a connection of the connector piece to the lateral, in particular radial connector of the filter module, and having at least one first and one second guide member exhibiting a respective proximal end and distal end which define a receiving area of the connecting apparatus for receiving a filter module, in particular a tubular filter module , wherein at least the first guide member exhibits a side directed toward the receiving area which has at least one guide surface running from the proximal end to the distal end of the first guide member and connecting to the proximal end of the connector piece , characterized in that the side of the guide member facing the guide surface directed toward the receiving area is in a cross section S-shaped, wherein the S-shape results from two sequentially assembled curved sections (R1, R2) and the cross section coincides with an area that extends through the receiving area and both of the guide members of the connecting apparatus.