mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic servovalve , comprising a torque motor and a heat exchanger system, wherein the heat exchanger system comprises: a base comprising a supply port in fluid communication with a return port , a first passage for fluid connection to a source of cooling fluid, and a second passage in fluid communication with the return port ; and one or more pipes located adjacent a surface of the base , the one or more pipes fluidly connected between the first passage and the second passage , such that in use cooling fluid may flow from the first passage to the second passage via the one or more pipes , wherein the torque motor is located over the surface of the base , and the one or more pipes are located between one or more components of the torque motor and the base . a base comprising a supply port in fluid communication with a return port , a first passage for fluid connection to a source of cooling fluid, and a second passage in fluid communication with the return port ; and one or more pipes located adjacent a surface of the base , the one or more pipes fluidly connected between the first passage and the second passage , such that in use cooling fluid may flow from the first passage to the second passage via the one or more pipes , wherein the torque motor is located over the surface of the base , and the one or more pipes are located between one or more components of the torque motor and the base .
A drivetrain apparatus for an electric vehicle, the drivetrain apparatus comprising a first motor-gearbox unit ; a second motor-gearbox unit ; and a coupling apparatus , wherein each motor-gearbox unit comprises: a gearbox ; a motor mounted to the gearbox ; and a coupling region configured to receive the coupling apparatus; and wherein: the coupling apparatus is configured to couple the first motor-gearbox unit to the second motor-gearbox unit ; the coupling apparatus provides a coupled orientation between the first and second motor-gearbox units ; and the coupled orientation can be transitioned to another coupled orientation by a rotation of one of the motor-gearbox units with respect to the other motor-gearbox unit . a gearbox ; a motor mounted to the gearbox ; and a coupling region configured to receive the coupling apparatus; and wherein: the coupling apparatus is configured to couple the first motor-gearbox unit to the second motor-gearbox unit ; the coupling apparatus provides a coupled orientation between the first and second motor-gearbox units ; and the coupled orientation can be transitioned to another coupled orientation by a rotation of one of the motor-gearbox units with respect to the other motor-gearbox unit . the coupling apparatus is configured to couple the first motor-gearbox unit to the second motor-gearbox unit ; the coupling apparatus provides a coupled orientation between the first and second motor-gearbox units ; and the coupled orientation can be transitioned to another coupled orientation by a rotation of one of the motor-gearbox units with respect to the other motor-gearbox unit .
Bandpass filter for light - comprising a variable lower cut-off wavelength which is defined by a two-dimensional long-pass filter , and - comprising a variable upper cut-off wavelength which is defined by a two-dimensional short-pass filter , - wherein the long-pass filter and the short-pass filter are connected in series, and - wherein the long-pass filter and the short-pass filter are spatially fixed relative to one another, and characterized in - that the long-pass filter has different lower cut-off wavelengths in different area regions which follow to one another in a first direction , - that the short-pass filter has different upper cut-off wavelengths in different area regions which follow to one another in a second direction , - that the first direction and the second direction are oriented crosswise to one another. - comprising a variable lower cut-off wavelength which is defined by a two-dimensional long-pass filter , and - comprising a variable upper cut-off wavelength which is defined by a two-dimensional short-pass filter , - wherein the long-pass filter and the short-pass filter are connected in series, and - wherein the long-pass filter and the short-pass filter are spatially fixed relative to one another, and characterized in - that the long-pass filter has different lower cut-off wavelengths in different area regions which follow to one another in a first direction , - that the short-pass filter has different upper cut-off wavelengths in different area regions which follow to one another in a second direction , - that the first direction and the second direction are oriented crosswise to one another.
A heat exchanger system comprising: a heat exchange main unit having a gas channel and a fluid channel configured such that a fluid in the fluid channel can exchange heat with the flue gas in the gas channel in use, a housing accommodating the heat exchange main unit ; a drain collecting part arranged inside the housing and configured to collect condensate from the flue gas; and a siphon attached to the drain collecting part to prevent the release of the flue gas from a condensate outlet formed therein, wherein the siphon has a tubular body being attached to the drain collecting part and having a first portion and a second portion , the first portion having a condensate inlet , the second portion having the condensate outlet and an operation member , the tubular body being configured such that, when the tubular body is attached to the drain collecting part , the first portion is connected to the drain collecting part and is at least partially located inside the housing , the second portion is at least partially located outside the housing , and the operation member is located outside the housing , characterized in that the second portion is detachably attached to the first portion without opening the housing of the heat exchanger system. a heat exchange main unit having a gas channel and a fluid channel configured such that a fluid in the fluid channel can exchange heat with the flue gas in the gas channel in use, a housing accommodating the heat exchange main unit ; a drain collecting part arranged inside the housing and configured to collect condensate from the flue gas; and a siphon attached to the drain collecting part to prevent the release of the flue gas from a condensate outlet formed therein, wherein the siphon has a tubular body being attached to the drain collecting part and having a first portion and a second portion , the first portion having a condensate inlet , the second portion having the condensate outlet and an operation member , the tubular body being configured such that, when the tubular body is attached to the drain collecting part , the first portion is connected to the drain collecting part and is at least partially located inside the housing , the second portion is at least partially located outside the housing , and the operation member is located outside the housing , the first portion having a condensate inlet , the second portion having the condensate outlet and an operation member , the tubular body being configured such that, when the tubular body is attached to the drain collecting part , the first portion is connected to the drain collecting part and is at least partially located inside the housing , the second portion is at least partially located outside the housing , and the operation member is located outside the housing , characterized in that the second portion is detachably attached to the first portion without opening the housing of the heat exchanger system.
A pipe coupling comprising: a support sleeve comprising a tube having contact sections at either end and a compensation section therebetween; at least one adjustable clamping band for each contact section; and an elastomeric sleeve comprising a substantially tubular body and circumferential flaps provided at each end of the body , the circumferential flaps overlapping the outer surface of the body to define a partially enclosed channel within which the contact sections of the support sleeve are provided and wherein the adjustable clamping bands are provided around the outer surface of the circumferential flaps and wherein axial slots are of substantially constant width in the compensation section and are of varying width in the second contact section , or the axial slots may vary substantially constantly in width along the slot, or the axial slots may be of differing widths in the compensation section and the second contact section.
An ultrasound imaging apparatus comprising: an output: a probe (P); a sensor configured to acquire position information of the probe; a storage configured to store a model of an object that is derived in advance; and a controller configured to: determine an area of the model corresponding to a position of the probe when acquiring an ultrasound image of the object as a scan area; determine a diagnosis area (Z8b) used for diagnosis of the object among the scan areas (ZV71, ZV72, ZV73, ZV74, Z8a) on the basis of at least one of a quality parameter of the ultrasound image or the position information of the probe; and output the scan area and the diagnosis area to correspond to the model on the output. characterized in that the controller determines the area of the model corresponding to the position of the probe when a movement speed of the probe is less than a predetermined value as the diagnosis area. a probe (P); a sensor configured to acquire position information of the probe; a storage configured to store a model of an object that is derived in advance; and a controller configured to: determine an area of the model corresponding to a position of the probe when acquiring an ultrasound image of the object as a scan area; determine a diagnosis area (Z8b) used for diagnosis of the object among the scan areas (ZV71, ZV72, ZV73, ZV74, Z8a) on the basis of at least one of a quality parameter of the ultrasound image or the position information of the probe; and output the scan area and the diagnosis area to correspond to the model on the output. characterized in that the controller determines the area of the model corresponding to the position of the probe when a movement speed of the probe is less than a predetermined value as the diagnosis area. determine an area of the model corresponding to a position of the probe when acquiring an ultrasound image of the object as a scan area; determine a diagnosis area (Z8b) used for diagnosis of the object among the scan areas (ZV71, ZV72, ZV73, ZV74, Z8a) on the basis of at least one of a quality parameter of the ultrasound image or the position information of the probe; and output the scan area and the diagnosis area to correspond to the model on the output. characterized in that the controller determines the area of the model corresponding to the position of the probe when a movement speed of the probe is less than a predetermined value as the diagnosis area.
A concrete block system for constructing a structure , the system comprising: - a plurality of structural blocks made of concrete, each structural block having a top side and a bottom side , and lateral sides , at least two of the lateral sides being provided with block channels , wherein the block channels extend vertically along a height of the structural blocks , from the bottom to the top sides and wherein the structural blocks have an L-shape, when viewed from the top; - a plurality of veneer units , each unit comprising an exposed face and a rear face , the rear face being provided with veneer channels ; and - a plurality of connectors , each being sized, shaped and configured to attach the veneer units to the structural blocks via the respective block channels and veneer channels , wherein any given connector from said plurality of connectors is suitable for connecting a veneer unit to a structural block . - a plurality of structural blocks made of concrete, each structural block having a top side and a bottom side , and lateral sides , at least two of the lateral sides being provided with block channels , wherein the block channels extend vertically along a height of the structural blocks , from the bottom to the top sides and wherein the structural blocks have an L-shape, when viewed from the top; - a plurality of veneer units , each unit comprising an exposed face and a rear face , the rear face being provided with veneer channels ; and - a plurality of connectors , each being sized, shaped and configured to attach the veneer units to the structural blocks via the respective block channels and veneer channels , wherein any given connector from said plurality of connectors is suitable for connecting a veneer unit to a structural block .
A method to produce arginine bicarbonate comprising: reacting an arginine slurry having 30% to 70% by weight of arginine in water with carbon dioxide under controlled temperature of greater than 50°C and pressure, wherein the carbon dioxide is added to the arginine in water in a sealed reaction vessel to form a solution comprising arginine and bicarbonate anion, wherein the partial pressure of carbon dioxide is 34 kPa to 1034 kPa (5 psi to 150 psi); permitting the reactor contents to cool to 0-40°C, and recovering arginine bicarbonate from the solution.
A joint module for an articulated vehicle , for pivotally interconnecting a first vehicle part and a second vehicle part of the articulated vehicle , the joint module comprising an articulation joint comprising - a first segment , connectable to the first vehicle part , - a second segment , connectable to the second vehicle part , the second segment having two second connecting plates spaced apart at a second distance and perpendicular to an axial direction of the articulation joint , - a slewing bearing pivotally coupling the first segment to the second segment , the slewing bearing having an inner ring and an outer ring pivotable with respect to each other about a pivot axis , the pivot axis defining the axial direction of the articulation joint , wherein the inner ring is fixated to the second connecting plates , characterized in that the first segment having two first connecting plates spaced apart at a first distance and perpendicular to the axial direction , the outer ring being fixated to the first connecting plates therebetween, each of the two first connecting plates having an arc-shaped recess wherein a central axis of the arc-shape of the recess is concentric with the pivot axis , and the second distance being such that the two first connecting plates , at least with a portion thereof between which the outer ring is fixated, extend between the two second connecting plates , and the inner ring being fixated to the second connecting plates therebetween and at the location of the recesses in the first segment . - a first segment , connectable to the first vehicle part , - a second segment , connectable to the second vehicle part , the second segment having two second connecting plates spaced apart at a second distance and perpendicular to an axial direction of the articulation joint , - a slewing bearing pivotally coupling the first segment to the second segment , the slewing bearing having an inner ring and an outer ring pivotable with respect to each other about a pivot axis , the pivot axis defining the axial direction of the articulation joint , wherein the inner ring is fixated to the second connecting plates , characterized in that the first segment having two first connecting plates spaced apart at a first distance and perpendicular to the axial direction , the outer ring being fixated to the first connecting plates therebetween, each of the two first connecting plates having an arc-shaped recess wherein a central axis of the arc-shape of the recess is concentric with the pivot axis , and the second distance being such that the two first connecting plates , at least with a portion thereof between which the outer ring is fixated, extend between the two second connecting plates , and the inner ring being fixated to the second connecting plates therebetween and at the location of the recesses in the first segment .
An air conditioner, comprising: a grating; and a roller mechanism, connected to the grating and driving the grating to move, wherein the roller mechanism is comprising: a driving shaft ; an outer wheel , provided on the driving shaft in a sleeving manner; and a friction portion , sandwiched between the driving shaft and the outer wheel , the driving shaft driving the outer wheel to rotate by means of the friction portion , while there are a plurality of roller mechanisms, wherein the grating is rectangular, and the plurality of roller mechanisms are disposed at top corners of the grating. a grating; and a roller mechanism, connected to the grating and driving the grating to move, wherein the roller mechanism is comprising: a driving shaft ; an outer wheel , provided on the driving shaft in a sleeving manner; and a friction portion , sandwiched between the driving shaft and the outer wheel , the driving shaft driving the outer wheel to rotate by means of the friction portion , while there are a plurality of roller mechanisms, wherein the grating is rectangular, and the plurality of roller mechanisms are disposed at top corners of the grating. a driving shaft ; an outer wheel , provided on the driving shaft in a sleeving manner; and a friction portion , sandwiched between the driving shaft and the outer wheel , the driving shaft driving the outer wheel to rotate by means of the friction portion , while there are a plurality of roller mechanisms, wherein the grating is rectangular, and the plurality of roller mechanisms are disposed at top corners of the grating.
Coated glass pane with a low-e and/or solar control coating comprising in sequence from the glass surface at least the following layers: a lower anti-reflection layer, comprising a base layer of an (oxi)nitride of aluminium, a middle layer of an oxide of Zn and Sn, comprising 10 - 90 wt.% Zn and 90-10 wt.% Sn, preferably 40 - 60 wt.% Zn and 40 - 60 wt.% Sn (in wt.% of its total metal content), a top layer of a metal oxide; a silver-based functional layer; a barrier layer with a thickness less than 15 nm and in contact with the silver-based functional layer; an upper anti-reflection layer comprising a layer of an (oxi)nitride of aluminium in contact with the barrier layer and having a thickness of more than 10 nm. a lower anti-reflection layer, comprising a base layer of an (oxi)nitride of aluminium, a middle layer of an oxide of Zn and Sn, comprising 10 - 90 wt.% Zn and 90-10 wt.% Sn, preferably 40 - 60 wt.% Zn and 40 - 60 wt.% Sn (in wt.% of its total metal content), a top layer of a metal oxide; a base layer of an (oxi)nitride of aluminium, a middle layer of an oxide of Zn and Sn, comprising 10 - 90 wt.% Zn and 90-10 wt.% Sn, preferably 40 - 60 wt.% Zn and 40 - 60 wt.% Sn (in wt.% of its total metal content), a top layer of a metal oxide; a silver-based functional layer; a barrier layer with a thickness less than 15 nm and in contact with the silver-based functional layer; an upper anti-reflection layer comprising a layer of an (oxi)nitride of aluminium in contact with the barrier layer and having a thickness of more than 10 nm.
An exhaust diffuser for a gas turbine engine that is mounted at an outlet of a gas turbine to eject exhaust gas to outside of the turbine and includes a hollow cylindrical internal diffuser guide and an external diffuser guide , the exhaust diffuser comprising: a plurality of struts disposed between the internal diffuser guide and the external diffuser guide to space the internal diffuser guide and the external diffuser guide at a predetermined distance from each other; and a plurality of vanes surrounding an outer side of the internal diffuser guide , wherein the plurality of vanes are formed in a ring shape surrounding the internal diffuser guide , wherein three or more struts are spaced at a predetermined angle from each other around the outer side of the internal diffuser guide , the vanes connect adjacent struts , and the vanes are arranged in parallel to the outer side of the internal diffuser guide , wherein the each of the plurality of vanes is mounted on the plurality of struts through a hinge unit , and a driving unit operating with the hinge unit of the vane through a link is disposed in the strut , characterized in that one or more guide projections extending in a flow direction of exhaust gas are formed on an outer side of the vanes , wherein the guide projection has a streamline structure continuing from the outer side of each vane when viewed in a longitudinal section. a plurality of struts disposed between the internal diffuser guide and the external diffuser guide to space the internal diffuser guide and the external diffuser guide at a predetermined distance from each other; and a plurality of vanes surrounding an outer side of the internal diffuser guide , wherein the plurality of vanes are formed in a ring shape surrounding the internal diffuser guide , wherein three or more struts are spaced at a predetermined angle from each other around the outer side of the internal diffuser guide , the vanes connect adjacent struts , and the vanes are arranged in parallel to the outer side of the internal diffuser guide , wherein the each of the plurality of vanes is mounted on the plurality of struts through a hinge unit , and a driving unit operating with the hinge unit of the vane through a link is disposed in the strut , characterized in that one or more guide projections extending in a flow direction of exhaust gas are formed on an outer side of the vanes , wherein the guide projection has a streamline structure continuing from the outer side of each vane when viewed in a longitudinal section.
A container pack comprising a plurality of containers, wherein the containers are bonded to each other with a hot melt adhesive composition comprising based on the total weight of the hot melt adhesive composition: a) from 10 to 50 weight percent of at least one block copolymer; b) from 15 to 50 weight percent of at least one plasticizer; c) from 15 to 50 weight percent of at least one resin; d) optionally up to 25 weight percent of at least one semi crystalline polyolefin; and e) optionally up to 10 weight percent of at least one wax; wherein the at least one block copolymer has a triblock, radial or multiblock content of less than 20 weight percent based on the total weight of the hot melt adhesive composition. a) from 10 to 50 weight percent of at least one block copolymer; b) from 15 to 50 weight percent of at least one plasticizer; c) from 15 to 50 weight percent of at least one resin; d) optionally up to 25 weight percent of at least one semi crystalline polyolefin; and e) optionally up to 10 weight percent of at least one wax;