mhurhangee/patent-ind-claim-en huggingface dataset:
A method for displaying guidance information, the method comprising: receiving , by one or more hardware processors, data from a tracking system associated with an elongate device comprising a flexible body ; calculating, by the one or more hardware processors, a bend radius along a length of the flexible body based on the data; determining , by the one or more hardware processors, supplemental guidance information that includes an indication of whether the bend radius is less than a minimum allowable bend radius, wherein the minimum allowable bend radius is selected to allow passage of a medical device through the flexible body such that the bend radius being less than the minimum allowable bend radius is associated with a risk of blocking the passage of the medical device; augmenting , by the one or more hardware processors, one or more images with the supplemental guidance information to produce one or more augmented images; and displaying the one or more augmented images on a display device at a surgeon console . receiving , by one or more hardware processors, data from a tracking system associated with an elongate device comprising a flexible body ; calculating, by the one or more hardware processors, a bend radius along a length of the flexible body based on the data; determining , by the one or more hardware processors, supplemental guidance information that includes an indication of whether the bend radius is less than a minimum allowable bend radius, wherein the minimum allowable bend radius is selected to allow passage of a medical device through the flexible body such that the bend radius being less than the minimum allowable bend radius is associated with a risk of blocking the passage of the medical device; augmenting , by the one or more hardware processors, one or more images with the supplemental guidance information to produce one or more augmented images; and displaying the one or more augmented images on a display device at a surgeon console .
A temperature-dependent switch , comprising: - a temperature-dependent switching mechanism having a switching mechanism unit , which comprises a movable contact part coupled to a bimetallic snap-action disc , and having a switching mechanism housing , in which the switching mechanism unit is arranged and held captively therein; and - a switch housing , in which the switching mechanism housing is arranged and held captively therein, wherein the switch housing comprises a stationary contact part , which acts as a mating contact to the movable contact part ; wherein the switching mechanism housing surrounds the switching mechanism unit from a first housing side , a second housing side opposite the first housing side , and a housing circumferential side extending between and transversely to the first and the second housing sides , and on the first housing side comprises an opening through which the movable contact part interacts with the stationary contact part , wherein the switching mechanism housing comprises an electrically conductive base body , which forms at least part of the second housing side , characterized in that said part of the second housing side forms a freely accessible outside of the switch , and that the switch further comprises an insulator , which electrically insulates the base body of the switching mechanism housing from the switch housing and is arranged inside the switch housing . - a temperature-dependent switching mechanism having a switching mechanism unit , which comprises a movable contact part coupled to a bimetallic snap-action disc , and having a switching mechanism housing , in which the switching mechanism unit is arranged and held captively therein; and - a switch housing , in which the switching mechanism housing is arranged and held captively therein, wherein the switch housing comprises a stationary contact part , which acts as a mating contact to the movable contact part ; wherein the switching mechanism housing surrounds the switching mechanism unit from a first housing side , a second housing side opposite the first housing side , and a housing circumferential side extending between and transversely to the first and the second housing sides , and on the first housing side comprises an opening through which the movable contact part interacts with the stationary contact part ,
Trap for marine sediments, the trap comprising on two vertical sides, opposite to each other, a first inlet opening and a second outlet opening , configured to allow the inlet and the outlet of the marine current, said trap comprising between said two openings : - an inlet area , whose section diverges in terms of width between said inlet opening and the end section of said inlet area ; - a sedimentation area having a section greater than said end section of the inlet area , configured to allow the separation by gravity of the particles present in the marine current, - and an outlet area whose section converges in terms of width between the section where said outlet area is connected to said sedimentation area and said second outlet opening characterized in that the section of said inlet area converges in terms of height between said inlet opening and its own end section , the bottom of said inlet area being convergent upwards and in that the section of said outlet area diverges in terms of height between the section in which said outlet area is connected to said sedimentation area and said second outlet opening . - an inlet area , whose section diverges in terms of width between said inlet opening and the end section of said inlet area ; - a sedimentation area having a section greater than said end section of the inlet area , configured to allow the separation by gravity of the particles present in the marine current, - and an outlet area whose section converges in terms of width between the section where said outlet area is connected to said sedimentation area and said second outlet opening the section of said inlet area converges in terms of height between said inlet opening and its own end section , the bottom of said inlet area being convergent upwards and in that the section of said outlet area diverges in terms of height between the section in which said outlet area is connected to said sedimentation area and said second outlet opening .
A method of controlling a conveyance rate of grain of an unloader system of an agricultural harvester , comprising the steps of: providing a grain holding device ; providing an unloader in communication with the grain holding device , the unloader having an inlet for receiving grain from the grain holding device and an outlet for discharging grain; providing an apparatus within the grain holding device operable for controllably feeding grain within the grain holding device to the unloader , said apparatus including a power source; monitoring a parameter associated with the power source of the apparatus ; comparing the parameter of the power source to a maximum predetermined threshold value; and automatically controlling the conveyance rate of grain of the apparatus to the unloader based on the comparison of the parameter, characterized in that the parameter associated with the power source of the apparatus is a total engine power consumed. providing a grain holding device ; providing an unloader in communication with the grain holding device , the unloader having an inlet for receiving grain from the grain holding device and an outlet for discharging grain; providing an apparatus within the grain holding device operable for controllably feeding grain within the grain holding device to the unloader , said apparatus including a power source; monitoring a parameter associated with the power source of the apparatus ; comparing the parameter of the power source to a maximum predetermined threshold value; and automatically controlling the conveyance rate of grain of the apparatus to the unloader based on the comparison of the parameter, characterized in that the parameter associated with the power source of the apparatus is a total engine power consumed.
Method for producing gypsum fiber boards , comprising the steps of preparing a compressible mat of gypsum-containing material from a mixture comprising 75 wt% to 90 wt% relative to the total dry mix of calcium sulfate hemi-hydrate and 10 wt% to 25 wt% relative to the total dry mix of paper fibers, wherein the calcium sulfate hemi-hydrate is a mixture of α-calcium sulfate hemi-hydrate and β-calcium sulfate hemi- hydrate, moving the dry compressible mat of gypsum-containing material on a conveyor belt to a hydration water tank , and hydrating the gypsum-containing material with hydration water added from above to the top surface of the mat in excess, and passing the gypsum-containing material through a continuous press to form an endless gypsum fiber board having a thickness greater than 19 mm, wherein the step of preparing the compressible mat comprises mixing at least 20 wt% relative to the total calcium sulfate hemi-hydrate of α-calcium sulfate hemi-hydrate with a least 50 wt% relative to the total calcium sulfate hemi-hydrate of β-calcium sulfate hemi-hydrate.
Socket of a control cabinet , with a frame , and with a stabilizing bar , said stabilizing bar being captively and extendably connected to the frame and displaceably mounted on the frame in a horizontal direction, and with a second stabilizing bar , which is captively connected to the frame and displaceably mounted on the frame in the horizontal direction, characterized in that the stabilizing bar is a hollow profile bar, and the second stabilizing bar is at least partially inserted into the stabilizing bar .
A graft copolymer comprising: a core polymer comprising a crosslinked or non-crosslinked polysaccharide, a plurality of primary graft polymers covalently grafted to the core polymer, a plurality of secondary graft polymers covalently grafted to each primary graft polymer; wherein the core polymer comprises hyaluronic acid; the primary graft polymers are dextran; and the secondary graft polymers are chondroitin sulphate. a core polymer comprising a crosslinked or non-crosslinked polysaccharide, a plurality of primary graft polymers covalently grafted to the core polymer, a plurality of secondary graft polymers covalently grafted to each primary graft polymer; wherein the core polymer comprises hyaluronic acid; the primary graft polymers are dextran; and the secondary graft polymers are chondroitin sulphate.
An in vitro method of identifying a disease-specific immunogenic mutant peptide from a disease tissue in an individual, comprising: a) obtaining a first set of variant-coding sequences based on the genomic sequences of the disease tissue in the individual, each variant-coding sequence having a variation in the sequence compared to a reference sample; b) selecting a second set of expression variant-coding sequences from the first set based on transcriptomic sequences of the disease tissue in the individual; c) selecting a third set of epitope variant-coding sequences from the second set based on predicted ability of the peptides encoded by the expression variant-coding sequences to bind to an MHC class I molecule (MHCI); d) obtaining a plurality of peptides that are bound to an MHCI molecule from the disease tissue; e) subjecting the MHCI-bound peptides to mass spectrometry-based sequencing; f) correlating the mass spectrometry-derived sequence information of the MHCI-bound peptides with the third set of epitope variant-coding sequences; thereby identifying the disease-specific immunogenic mutant peptide. a) obtaining a first set of variant-coding sequences based on the genomic sequences of the disease tissue in the individual, each variant-coding sequence having a variation in the sequence compared to a reference sample; b) selecting a second set of expression variant-coding sequences from the first set based on transcriptomic sequences of the disease tissue in the individual; c) selecting a third set of epitope variant-coding sequences from the second set based on predicted ability of the peptides encoded by the expression variant-coding sequences to bind to an MHC class I molecule (MHCI); d) obtaining a plurality of peptides that are bound to an MHCI molecule from the disease tissue; e) subjecting the MHCI-bound peptides to mass spectrometry-based sequencing; f) correlating the mass spectrometry-derived sequence information of the MHCI-bound peptides with the third set of epitope variant-coding sequences;
A blower comprising: a housing ; an impeller including a plurality of blades disposed cylindrically and a cone connecting one ends of the plurality of blades, the cone being formed in a convex shape inside the plurality of blades, the convex shape having a height lower than the plurality of blades, the impeller being positioned inside the housing; an impeller mounting hole of the housing, the impeller mounting hole being provided close to the one ends of the plurality of blades; an air suction hole of the housing, the air suction hole being provided close to the other ends of the plurality of blades; a discharge flow passage of the housing, the discharge flow passage being formed between the housing and the impeller; a motor provided close to the one ends of the plurality of blades, the motor having a rotary driving shaft connected to the center of the cone; and a motor flange for fixing the motor to the impeller mounting hole, the blower further comprising an internal space partitioning member present between the motor flange and the impeller, wherein the internal space partitioning member is present between the motor flange and the discharge flow passage , wherein the internal space partitioning member has, in a region facing the one ends of the plurality of blades, a partitioning member blade facing region substantially parallel to an annular surface formed by rotation of the one ends of the plurality of blades and the internal space partitioning member has, in a region inside the partitioning member blade facing region , a partitioning member convex portion projecting toward the cone and having a motor mounting hole in which the other end of the motor or the rotary driving shaft is disposed.. a housing ; an impeller including a plurality of blades disposed cylindrically and a cone connecting one ends of the plurality of blades, the cone being formed in a convex shape inside the plurality of blades, the convex shape having a height lower than the plurality of blades, the impeller being positioned inside the housing; an impeller mounting hole of the housing, the impeller mounting hole being provided close to the one ends of the plurality of blades; an air suction hole of the housing, the air suction hole being provided close to the other ends of the plurality of blades; a discharge flow passage of the housing, the discharge flow passage being formed between the housing and the impeller; a motor provided close to the one ends of the plurality of blades, the motor having a rotary driving shaft connected to the center of the cone; and a motor flange for fixing the motor to the impeller mounting hole, the blower further comprising an internal space partitioning member present between the motor flange and the impeller,
A process for manufacturing a mixture comprising (a) at least one compound of general formula (I) in which R 1 stands for methyl, ethyl, methoxy or ethoxy; and (b) at least one compound of general formula (II) in which R 2 stands for methyl, ethyl, methoxy or ethoxy; and optionally (c) at least one component of general formula (III) in which R 3 stands for methyl, ethyl, methoxy or ethoxy and the dotted line means a single or double bond comprising the following steps: (A) providing a source of (-)-carveol and (-)-dihydrocarveol; (B) reacting said source of (-)-carveol and (-)-dihydrocarveol with a compound of general formula (IV) in which R 4 stands for a chlorine, methyl or ethyl group and R 5 is selected from a methyl, ethyl, acetyl or propionyl group. (a) at least one compound of general formula (I) in which R 1 stands for methyl, ethyl, methoxy or ethoxy; and (b) at least one compound of general formula (II) in which R 2 stands for methyl, ethyl, methoxy or ethoxy; and optionally (c) at least one component of general formula (III) in which R 3 stands for methyl, ethyl, methoxy or ethoxy and the dotted line means a single or double bond comprising the following steps: (A) providing a source of (-)-carveol and (-)-dihydrocarveol; (B) reacting said source of (-)-carveol and (-)-dihydrocarveol with a compound of general formula (IV) in which R 4 stands for a chlorine, methyl or ethyl group and R 5 is selected from a methyl, ethyl, acetyl or propionyl group. (A) providing a source of (-)-carveol and (-)-dihydrocarveol; (B) reacting said source of (-)-carveol and (-)-dihydrocarveol with a compound of general formula (IV) in which R 4 stands for a chlorine, methyl or ethyl group and R 5 is selected from a methyl, ethyl, acetyl or propionyl group.
A delivery and deployment device configured to deliver an implantable medical device (IMD) to a chamber of a patient's heart and deploy the IMD therein, the delivery and deployment device comprising: a handle assembly ; a shaft extending distally from the handle assembly , the shaft including a distal region; a device containment housing coupled to the distal region of the shaft and extending distally therefrom to a distal end of the device containment housing , the device containment housing configured to accommodate at least part of the IMD therein; a plurality of electrodes distributed about an exterior surface of the device containment housing such that at least some of the plurality of electrodes may be positioned to test a potential IMD deployment location before deploying the IMD ; and a plurality of electrical conductors operably coupled with the plurality of electrodes and extending proximally back along the shaft toward the handle assembly , the plurality of electrical conductors having proximal ends configured to be operably coupled to a testing device characterised in that a first electrode of the plurality of electrodes extends over the distal end of the device containment housing so as to directly engage tissue when the distal end of the device containment housing is pushed up against a heart wall. a handle assembly ; a shaft extending distally from the handle assembly , the shaft including a distal region; a device containment housing coupled to the distal region of the shaft and extending distally therefrom to a distal end of the device containment housing , the device containment housing configured to accommodate at least part of the IMD therein; a plurality of electrodes distributed about an exterior surface of the device containment housing such that at least some of the plurality of electrodes may be positioned to test a potential IMD deployment location before deploying the IMD ; and a plurality of electrical conductors operably coupled with the plurality of electrodes and extending proximally back along the shaft toward the handle assembly , the plurality of electrical conductors having proximal ends configured to be operably coupled to a testing device
An image forming apparatus comprising: a main body ; an endless belt ; and a drum unit having a first end and a second end , the drum unit supporting a plurality of photosensitive drums including a black photosensitive drum and color photosensitive drums, the black photosensitive drum having a first axis extending in an axial direction, each of the color photosensitive drums having a second axis extending in a direction parallel to the axial direction, characterized in that the drum unit is detachably mounted on the main body and inserted in a mounting direction to be mounted on the main body , the black and color photosensitive drums are arranged in the mounting direction, wherein the axial direction is arranged perpendicular to the mounting direction, the second end is disposed downstream in the mounting direction, the black photosensitive drum is disposed at a position nearest to the first end , the second end being pivotable about the first axis to be movable between an initial position and a pivot position, wherein the black and color photosensitive drums contact the endless belt when the drum unit is disposed in the initial position, wherein the black photosensitive drum contacts the endless belt and the color photosensitive drums are separated from the endless belt when the drum unit is disposed in the pivot position. a main body ; an endless belt ; and a drum unit having a first end and a second end , the drum unit supporting a plurality of photosensitive drums including a black photosensitive drum and color photosensitive drums, the black photosensitive drum having a first axis extending in an axial direction, each of the color photosensitive drums having a second axis extending in a direction parallel to the axial direction, characterized in that the drum unit is detachably mounted on the main body and inserted in a mounting direction to be mounted on the main body , the black and color photosensitive drums are arranged in the mounting direction, wherein the axial direction is arranged perpendicular to the mounting direction, the second end is disposed downstream in the mounting direction, the black photosensitive drum is disposed at a position nearest to the first end , the second end being pivotable about the first axis to be movable between an initial position and a pivot position, wherein the black and color photosensitive drums contact the endless belt when the drum unit is disposed in the initial position, wherein the black photosensitive drum contacts the endless belt and the color photosensitive drums are separated from the endless belt when the drum unit is disposed in the pivot position.
A control module for controlling a linear compressor (LC100), comprising: a drive circuitry (DRV100) configured to drive the linear compressor (LC100) based on a control signal; a detector (D100) configured to detect a motor current corresponding to a motor of the linear compressor (LC100); characterised in that the control module further comprises an asymmetric current generator (IA100) configured to generate an asymmetric motor current by applying a current offset to the detected motor current; and a controller (C100) configured to generate the control signal based on the asymmetric motor current, wherein the controller (C100) is configured to integrate the asymmetric motor current, to calculate a capacitor voltage by multiplying the integrated value by a specific constant value, and to implement a function of a virtual capacitor (VC110) by generating the control signal based on the calculated capacitor voltage. a drive circuitry (DRV100) configured to drive the linear compressor (LC100) based on a control signal; a detector (D100) configured to detect a motor current corresponding to a motor of the linear compressor (LC100); characterised in that the control module further comprises an asymmetric current generator (IA100) configured to generate an asymmetric motor current by applying a current offset to the detected motor current; and a controller (C100) configured to generate the control signal based on the asymmetric motor current, wherein the controller (C100) is configured to integrate the asymmetric motor current, to calculate a capacitor voltage by multiplying the integrated value by a specific constant value, and to implement a function of a virtual capacitor (VC110) by generating the control signal based on the calculated capacitor voltage.