mhurhangee/patent-ind-claim-en huggingface dataset:
A cold plate for a liquid cooling system , configured for cooling a heat generating electronic component, the cold plate comprising: a heat exchanging interface having a first surface and a second surface for contacting the heat generating electronic component opposite the first surface ; a plurality of parallel fins extending from the first surface , the plurality of fins defining a plurality of channels; a plurality of slots formed in the plurality of fins transversely to the plurality of channels, wherein the plurality of slots include two inner slots and two outer slots , and a plurality of barrier walls that extend down into the plurality of slots , wherein the plurality of barrier walls include two inner barrier walls and two outer barrier walls ; and a seal that has an inlet passage configured to direct a cooling liquid to the plurality of channels, wherein the seal defines a central channel configured to distribute the cooling liquid to the middle region of the plurality of fins , wherein the central channel is positioned between the inner barrier walls about midway along a length of the plurality of fins and wherein the cooling liquid supplied to the plurality of channels through the central channel splits and flows away from the middle of the plurality of fins . a heat exchanging interface having a first surface and a second surface for contacting the heat generating electronic component opposite the first surface ; a plurality of parallel fins extending from the first surface , the plurality of fins defining a plurality of channels; a plurality of slots formed in the plurality of fins transversely to the plurality of channels, wherein the plurality of slots include two inner slots and two outer slots , and a plurality of barrier walls that extend down into the plurality of slots , wherein the plurality of barrier walls include two inner barrier walls and two outer barrier walls ; and a seal that has an inlet passage configured to direct a cooling liquid to the plurality of channels, wherein the seal defines a central channel configured to distribute the cooling liquid to the middle region of the plurality of fins , wherein the central channel is positioned between the inner barrier walls about midway along a length of the plurality of fins and wherein the cooling liquid supplied to the plurality of channels through the central channel splits and flows away from the middle of the plurality of fins .
A method of inspecting a length of pipe having a pipe wall and a nominal inner diameter, the method comprising - providing an inspection pig configured for passing along the length of pipe, wherein the inspection pig is provided with a substantially circumferential inside-out capacitance tomography sensor arrangement having a diameter smaller than the nominal inner diameter; - passing the inspection pig along the length of pipe thereby defining an annular space between the sensor arrangement and the pipe wall; - conducting measurements using the sensor; - arrangement at a plurality of locations along the length of pipe, and - deriving, for each of the plurality of locations, information about an interface surrounding the inspection pig from the measurements. - providing an inspection pig configured for passing along the length of pipe, wherein the inspection pig is provided with a substantially circumferential inside-out capacitance tomography sensor arrangement having a diameter smaller than the nominal inner diameter; - passing the inspection pig along the length of pipe thereby defining an annular space between the sensor arrangement and the pipe wall; - conducting measurements using the sensor; - arrangement at a plurality of locations along the length of pipe, and - deriving, for each of the plurality of locations, information about an interface surrounding the inspection pig from the measurements.
An inner handle for an automobile, comprising: a base , a handle , rotatably connected with the base, a reset assembly , located between the handle and the base , and a driving assembly, connected with the handle , comprising: an electronic module and a mechanical module, wherein the electronic module comprises a switch , a motor and a first driving component , the switch being connected with a control circuit of the motor, the first driving component being configured to trigger the switch during a rotation of the handle, and the mechanical module comprises a second driving component and a pulling wire , the second driving component configured to pull the pulling wire during the rotation of the handle , characterised in that the first driving component comprises a protrusion and a notch , the switch comprises a contacting point , when the handle is in a non-rotating state, the contacting point is located in the notch , and there is a gap between the first driving component and the contacting point , when the handle rotates at a certain angle, the protrusion is in contact with the contacting point of the switch to trigger the switch . a base , a handle , rotatably connected with the base, a reset assembly , located between the handle and the base , and a driving assembly, connected with the handle , comprising: an electronic module and a mechanical module, wherein the electronic module comprises a switch , a motor and a first driving component , the switch being connected with a control circuit of the motor, the first driving component being configured to trigger the switch during a rotation of the handle, and the mechanical module comprises a second driving component and a pulling wire , the second driving component configured to pull the pulling wire during the rotation of the handle , characterised in that the first driving component comprises a protrusion and a notch , the switch comprises a contacting point , when the handle is in a non-rotating state, the contacting point is located in the notch , and there is a gap between the first driving component and the contacting point , an electronic module and a mechanical module, wherein the electronic module comprises a switch , a motor and a first driving component , the switch being connected with a control circuit of the motor, the first driving component being configured to trigger the switch during a rotation of the handle, and the mechanical module comprises a second driving component and a pulling wire , the second driving component configured to pull the pulling wire during the rotation of the handle , characterised in that the first driving component comprises a protrusion and a notch , the switch comprises a contacting point , when the handle is in a non-rotating state, the contacting point is located in the notch , and there is a gap between the first driving component and the contacting point , when the handle rotates at a certain angle, the protrusion is in contact with the contacting point of the switch to trigger the switch .
An apparatus comprising: one or more processors and, memory in communication with the one or more processors, the memory comprising code that, when executed, causes the one or more processors to control the apparatus to: receive first data , the first data comprising information related to a region to be imaged and information related to a field of vision of a camera device positioned above a mobile entity on an aerial platform having a steering device, wherein the first data is entered by a user; determine , based at least on the first data, a path within the region and provide information on the first path to the mobile entity; characterized in that , the code, when executed, causes further the one or more processors to control the apparatus to: receive second data , the second data indicating a parameter related to power consumption by the camera device, and provide the second data to the camera device; receive third data from the camera device as the mobile entity moves the aerial platform along the first path using the steering apparatus, the third data including one or more images taken by the camera device according to the second data. one or more processors and, memory in communication with the one or more processors, the memory comprising code that, when executed, causes the one or more processors to control the apparatus to: receive first data , the first data comprising information related to a region to be imaged and information related to a field of vision of a camera device positioned above a mobile entity on an aerial platform having a steering device, wherein the first data is entered by a user; determine , based at least on the first data, a path within the region and provide information on the first path to the mobile entity; receive first data , the first data comprising information related to a region to be imaged and information related to a field of vision of a camera device positioned above a mobile entity on an aerial platform having a steering device, wherein the first data is entered by a user; determine , based at least on the first data, a path within the region and provide information on the first path to the mobile entity; characterized in that , the code, when executed, causes further the one or more processors to control the apparatus to: receive second data , the second data indicating a parameter related to power consumption by the camera device, and provide the second data to the camera device; receive third data from the camera device as the mobile entity moves the aerial platform along the first path using the steering apparatus, the third data including one or more images taken by the camera device according to the second data. receive second data , the second data indicating a parameter related to power consumption by the camera device, and provide the second data to the camera device; receive third data from the camera device as the mobile entity moves the aerial platform along the first path using the steering apparatus, the third data including one or more images taken by the camera device according to the second data.
An apparatus comprising: a flash tank configured to accumulate a refrigerant; a load configured to use the refrigerant from the flash tank to cool a space proximate the load ; a first compressor configured to compress the refrigerant from the load ; a coil within the flash tank configured to receive the refrigerant from the first compressor such that the received refrigerant is within the coil , the refrigerant within the flash tank cools the refrigerant within the coil ; a first pipe within the flash tank , the first pipe configured to direct the refrigerant from within the coil out of the flash tank ; a second compressor configured to compress the refrigerant directed out of the flash tank ; and a second pipe comprising a first end and a second end, the second pipe within the flash tank such that a flash gas enters the second pipe through the first end, the second pipe positioned above the coil, the second end of the second pipe coupled to the coil such that the refrigerant within the coil enters the second pipe through the second end, the first pipe coupled to the second pipe , the first pipe further configured to direct the flash gas from within the second pipe out of the flash tank , the second compressor further configured to compress the flash gas directed out of the flash tank . a flash tank configured to accumulate a refrigerant; a load configured to use the refrigerant from the flash tank to cool a space proximate the load ; a first compressor configured to compress the refrigerant from the load ; a coil within the flash tank configured to receive the refrigerant from the first compressor such that the received refrigerant is within the coil , the refrigerant within the flash tank cools the refrigerant within the coil ; a first pipe within the flash tank , the first pipe configured to direct the refrigerant from within the coil out of the flash tank ; a second compressor configured to compress the refrigerant directed out of the flash tank ; and a second pipe comprising a first end and a second end, the second pipe within the flash tank such that a flash gas enters the second pipe through the first end, the second pipe positioned above the coil, the second end of the second pipe coupled to the coil such that the refrigerant within the coil enters the second pipe through the second end, the first pipe coupled to the second pipe , the first pipe further configured to direct the flash gas from within the second pipe out of the flash tank , the second compressor further configured to compress the flash gas directed out of the flash tank .
Method for disinfecting an inanimate surface which is contaminated with microorganisms or which is suspected of being contaminated with microorganisms, the microorganism being one or more of Escherichia coli, Staphylococcus aureus, Pseudomonas aeruginosa, and Enterococcus hirae, comprising the step of contacting the surface with a disinfecting composition comprising: - 0.1-10 wt.% of one or more N-acylated amino acids or N-acylated peptides, or a salt thereof, - less than 0.1 wt.% of hydrogen peroxide, - 0.1-20 wt.% of one or more non-ethoxylated anionic surfactants, - 0.05-5 wt.% of a carboxylic acid, wherein the disinfecting composition has a pH in the range of 1-4.5, wherein the composition comprises less than 5 wt.% of ethoxylated anionic surfactant, wherein the acyl group of the N-acylated amino acids or N-acylated peptides or salts thereof is of the formula R-CO- wherein R-CO- represents an acyl group wherein R is a saturated or unsaturated, straight-chain C6 to C20 radical, and wherein, where an N-acylated peptide is used, the peptide has an average molecular weight of about 100 to about 3900 Dalton. - 0.1-10 wt.% of one or more N-acylated amino acids or N-acylated peptides, or a salt thereof, - less than 0.1 wt.% of hydrogen peroxide, - 0.1-20 wt.% of one or more non-ethoxylated anionic surfactants, - 0.05-5 wt.% of a carboxylic acid,
Damper sleeve for a pneumatic cylinder comprising a front portion extending along a longitudinal axis (X) and provided with a plurality of through holes extending in a radial direction and a tapered wall with a wall thickness which decreases toward a front end of the damper sleeve , the plurality of through holes being provided in the tapered wall , wherein the tapered wall is defined, in the radial direction, by an inner face and by an outer face , and characterized in that the outer face is parallel to the axis (X) and the inner face is inclined by an angle (α).
A load sensor comprising: a flange member capable of deflecting when receiving, at a load receiving portion (P 1 ), a load from a front side in an axial direction; a support member capable of supporting the flange member from a rear side in the axial direction, at a support portion (P 2 , P 3 , P 4 ,) displaced from the load receiving portion (P 1 ) in a radial direction orthogonal to the axial direction; and a displacement detecting mechanism configured to detect a relative movement amount by which the flange member and the support member move relative to each other; characterized in that the load sensor further comprises a variable detection sensitivity mechanism enabling the relative movement amount with respect to a change of the load applied to the flange member to be larger in a low load range in which the load is equal to or lower than a predetermined load value than in a high load range in which the load is higher than the predetermined load value, wherein the variable detection sensitivity mechanism comprises an elastic member disposed between the flange member and the support member , and configured such that, while the load is equal to or lower than the predetermined load value, the elastic member can be expanded and compressed according to a magnitude of the load so as to allow the flange member and the support member to move relative to each other in directions in which the elastic member is expanded and compressed. a flange member capable of deflecting when receiving, at a load receiving portion (P 1 ), a load from a front side in an axial direction; a support member capable of supporting the flange member from a rear side in the axial direction, at a support portion (P 2 , P 3 , P 4 ,) displaced from the load receiving portion (P 1 ) in a radial direction orthogonal to the axial direction; and a displacement detecting mechanism configured to detect a relative movement amount by which the flange member and the support member move relative to each other; characterized in that the load sensor further comprises a variable detection sensitivity mechanism enabling the relative movement amount with respect to a change of the load applied to the flange member to be larger in a low load range in which the load is equal to or lower than a predetermined load value than in a high load range in which the load is higher than the predetermined load value, wherein the variable detection sensitivity mechanism comprises an elastic member disposed between the flange member and the support member , and configured such that, while the load is equal to or lower than the predetermined load value, the elastic member can be expanded and compressed according to a magnitude of the load so as to allow the flange member and the support member to move relative to each other in directions in which the elastic member is expanded and compressed.
Apparatus for installation in or mounting to a hospital or care bed equipped with a mattress , having two shafts height-adjustable and rotatable relative to the mattress , to be arranged on two opposite longitudinal sides of the bed, and a bed sheet having two opposite ends, which, between the two shafts , is generally in parallel to a plane upper side of the mattress in a lowered position, is suspended and lifted off the mattress together with a patient lying on the bed sheet in a raised position and can be caused to move to transfer the patient between the shafts characterised in that one end of the bed sheet is wound on a supply roll , in that the dimensions of the bed sheet between its two ends are multiple times the width of the mattress , and in that a plurality of bed sheet changes are possible by unwinding the bed sheet from the supply roll , in which respectively a soiled portion of the bed sheet is replaced by an adjacent clean portion on the upper side of the mattress .
A seal configuration for an aircraft engine comprising: a ring shaped sealing component (510; 610) defining an axis; a carrier (520; 620) disposed radially outward of the ring shaped sealing component (510; 610) and supporting the ring shaped sealing component (510; 610); and a housing disposed at least partially about the carrier (520; 620), and maintained in a static position relative to the carrier (520; 620) via a spring , wherein the carrier (520; 620) and the housing include a plurality of rotation inhibiting features (550; 650) disposed in a balanced configuration about the carrier (520; 620) and the housing , and each of the rotation inhibiting features (550; 650) includes a finger (532; 632) extending from said housing and at least one interface feature (522; 622, 626) corresponding to each finger (532; 632), and being disposed on the carrier (520; 620), wherein each finger (532; 632) is axially aligned, characterized in that : the spring is a bellows spring , each finger (532; 632) includes at least one spring loaded extension (534; 634) received against the carrier (520; 620), the at least one interface feature comprises a pair of notches (522; 622, 624) protruding radially into the carrier (520; 620), and said spring loaded extension (534; 634) is received against the carrier (520; 620) at least at a first circumferential position, the first circumferential position being between the pair of notches (522; 622, 624). a ring shaped sealing component (510; 610) defining an axis; a carrier (520; 620) disposed radially outward of the ring shaped sealing component (510; 610) and supporting the ring shaped sealing component (510; 610); and a housing disposed at least partially about the carrier (520; 620), and maintained in a static position relative to the carrier (520; 620) via a spring , wherein the carrier (520; 620) and the housing include a plurality of rotation inhibiting features (550; 650) disposed in a balanced configuration about the carrier (520; 620) and the housing , and each of the rotation inhibiting features (550; 650) includes a finger (532; 632) extending from said housing and at least one interface feature (522; 622, 626) corresponding to each finger (532; 632), and being disposed on the carrier (520; 620), wherein each finger (532; 632) is axially aligned, characterized in that : the spring is a bellows spring , each finger (532; 632) includes at least one spring loaded extension (534; 634) received against the carrier (520; 620), the at least one interface feature comprises a pair of notches (522; 622, 624) protruding radially into the carrier (520; 620), and said spring loaded extension (534; 634) is received against the carrier (520; 620) at least at a first circumferential position, the first circumferential position being between the pair of notches (522; 622, 624).
A fusion protein, wherein said fusion protein comprises: (a) an aspartic protease or a soluble fragment thereof, wherein said soluble fragment has the proteolytic activity of the aspartic protease; (b) a β-glucosidase or an active fragment thereof having at least 50% of the β-glucosidase activity of said β-glucosidase; and (c) optionally a linker sequence located between (a) and (b), which is preferably encoded by the sequence as set forth in SEQ ID NO: 4. (a) an aspartic protease or a soluble fragment thereof, wherein said soluble fragment has the proteolytic activity of the aspartic protease; (b) a β-glucosidase or an active fragment thereof having at least 50% of the β-glucosidase activity of said β-glucosidase; and (c) optionally a linker sequence located between (a) and (b), which is preferably encoded by the sequence as set forth in SEQ ID NO: 4.
A pharmaceutical composition, comprising: (a) 1 mg/ml-120 mg/ml anti-SOST antibody or antigen-binding fragment thereof; (b) 5 mM-30 mM acetate buffer; (c) 45 mg/ml-90 mg/ml trehalose; (d) 0.02 mg/ml-0.8 mg/ml polysorbate 80; and (e) 4.5 mM-20 mM calcium salt; wherein the pH of the pharmaceutical composition is from 4.8 to 5.5; wherein the anti-SOST antibody or antigen binding fragment thereof comprises HCDR1, HCDR2 and HCDR3 sequences as shown in SEQ ID NO: 3, SEQ ID NO: 9, and SEQ ID NO: 5, respectively, and LCDR1, LCDR2 and LCDR3 sequences as shown in SEQ ID NO: 6, SEQ ID NO: 7, and SEQ ID NO: 8, respectively; and wherein the antigen-binding fragment is a Fab fragment, a Fab' fragment, a F(ab')2 fragment or a scFv fragment. (a) 1 mg/ml-120 mg/ml anti-SOST antibody or antigen-binding fragment thereof; (b) 5 mM-30 mM acetate buffer; (c) 45 mg/ml-90 mg/ml trehalose; (d) 0.02 mg/ml-0.8 mg/ml polysorbate 80; and (e) 4.5 mM-20 mM calcium salt; wherein the pH of the pharmaceutical composition is from 4.8 to 5.5; wherein the anti-SOST antibody or antigen binding fragment thereof comprises HCDR1, HCDR2 and HCDR3 sequences as shown in SEQ ID NO: 3, SEQ ID NO: 9, and SEQ ID NO: 5, respectively, and LCDR1, LCDR2 and LCDR3 sequences as shown in SEQ ID NO: 6, SEQ ID NO: 7, and SEQ ID NO: 8, respectively; and wherein the antigen-binding fragment is a Fab fragment, a Fab' fragment, a F(ab')2 fragment or a scFv fragment.