mhurhangee/patent-ind-claim-en huggingface dataset:
Interferometer device , comprising - a substrate ; - an intermediate layer region , which is applied on the substrate ; - a first mirror device (SP1) and a second mirror device (SP2), which are aligned plane-parallel with one another and are separated from one another by a first distance (d12) and are framed in the intermediate layer region or are arranged thereon, the intermediate layer region being removed in an inner region (IB) below the first mirror device (SP1) and/or below the second mirror device (SP2); and - a laterally structured electrode (E), which comprises a first subregion (E1) and at least one second subregion (E2) laterally separated therefrom and electrically insulated, which subregions can be connected to different electrical potentials, the electrode (E) being arranged at a second distance (d2) from the first or the second mirror device (SP1; SP2), the first subregion (E1) extending in the inner region (IB) and being arranged on the intermediate layer region and the second subregion (E2) extending in an outer region (AB) of the intermediate layer region , so that the first mirror device (SP1) and/or the second mirror device (SP2) is movable electrostatically and parallel to the substrate through the first subregion (E1) in the inner region (IB) and the first distance (d12) can be varied, the electrode (E) being located between or under the mirror devices (SP1; SP2) and the second subregion (E2) being framed in the outer region (AB) in the intermediate layer region and anchored there. - a substrate ; - an intermediate layer region , which is applied on the substrate ; - a first mirror device (SP1) and a second mirror device (SP2), which are aligned plane-parallel with one another and are separated from one another by a first distance (d12) and are framed in the intermediate layer region or are arranged thereon, the intermediate layer region being removed in an inner region (IB) below the first mirror device (SP1) and/or below the second mirror device (SP2); and - a laterally structured electrode (E), which comprises a first subregion (E1) and at least one second subregion (E2) laterally separated therefrom and electrically insulated, which subregions can be connected to different electrical potentials, the electrode (E) being arranged at a second distance (d2) from the first or the second mirror device (SP1; SP2), the first subregion (E1) extending in the inner region (IB) and being arranged on the intermediate layer region and the second subregion (E2) extending in an outer region (AB) of the intermediate layer region , so that the first mirror device (SP1) and/or the second mirror device (SP2) is movable electrostatically and parallel to the substrate through the first subregion (E1) in the inner region (IB) and the first distance (d12) can be varied, the electrode (E) being located between or under the mirror devices (SP1; SP2) and the second subregion (E2) being framed in the outer region (AB) in the intermediate layer region and anchored there.
A display panel assembly, comprising a display panel and a display switching device on a light outgoing surface of the display panel , and characterized in that : the display switching device comprises an electrode group and an electrochromic layer ; the electrode group comprises a first electrode and a second electrode ; and the first electrode and the second electrode are configured to receive voltage signals to make the electrochromic layer present each of a transparent state for 2D display, a first pattern for 3D display by means of an auxiliary viewing device, and a second pattern for glasses-free 3D display, the first electrode comprises a plurality of strip electrodes, the plurality of strip electrodes extend in a first direction and are closely arranged, the second electrode comprises a plurality of strip electrodes, the plurality of strip electrodes extend in a second direction intersecting the first direction and are closely arranged, and the electrochromic layer is between the first electrode and the second electrode . the display switching device comprises an electrode group and an electrochromic layer ; the electrode group comprises a first electrode and a second electrode ; and the first electrode and the second electrode are configured to receive voltage signals to make the electrochromic layer present each of a transparent state for 2D display, a first pattern for 3D display by means of an auxiliary viewing device, and a second pattern for glasses-free 3D display, the first electrode comprises a plurality of strip electrodes, the plurality of strip electrodes extend in a first direction and are closely arranged, the second electrode comprises a plurality of strip electrodes, the plurality of strip electrodes extend in a second direction intersecting the first direction and are closely arranged, and the electrochromic layer is between the first electrode and the second electrode .
Device for fixing a drawer to a rail of a pull-out guide, comprising a drawer , a fastening means fixed to a rail and a receiving element held on the drawer , over which the fastening means engages at least to some extent, wherein the receiving element is retained in a movable manner on the drawer and is pretensioned towards the fastening means , characterized in that the receiving element is arranged in a mounting position spaced from a rear panel or a rear panel mounting interface and a base of the drawer and is movable via the fastening means to the drawer against the force of a spring or of the elastically formed receiving element , wherein the receiving element is displaceably guided on a holder and wherein linear guide means are formed on the holder and the receiving element which guide a displacement in the longitudinal direction of the rail, and/or the receiving element is held pivotably on a bearing element .
A contact pad structure , comprising alternately stacked N insulating layers , where N>6, and N conductive layers , and having N regions exposing the respective conductive layers , wherein the regions are arranged in a P×Q array where P is the number of rows and Q is the number of columns and where P>3, Q≥2, and when the conductive layers are numbered from first to N-th from bottom to top, the conductive layer exposed in a region (i, j), where i=1 to P and j=1 to Q, is designated as an Ln i,j -th conductive layer , a difference in Ln between the P regions of the j-th column and the P regions of the (j+1)-th column is fixed, satisfying the relationship of Ln 1,j -Ln 1,j+1 =Ln 1,j -Ln 2,j+1 =...=Ln P,j -Ln P,j+1 =P, in the P regions of the j-th column, |Ln i,j -Ln i+1,j |≤2, and the P regions form an asymmetric structure having a concave shape or a protrusion shape , wherein when the asymmetric structure has the concave shape , the concave shape has a central lowest point, P is an odd number, the central lowest point is at a region (h, j) where h is (P+1)/2+1, Ln i ,j , = N − Tn i ,j , Tn 1,1 = 0 , Tn h , 1 = P − 1 , Tn i,1 (i=2 to h-1) is P-|i-h|×2 and Tn i,1 (i=h+1 to P) is P-1-|i-h|×2, and Tn i,j (i≥1, j> 1) is Tn i,1 +(j-1)×P, and when the asymmetric structure has the protrusion shape , the protrusion shape has a central highest point at an h-th region, where h is (P+1)/2 when P is an odd number, or h is P/2+1 when P is an even number, Ln i ,j = N − Tn i ,j , Tn 1,1 is P-1, Tn h,1 is 0, when P is an odd number, Tn i,1 (i=2 to h-1) is |i-h|×2 and Tn i,1 (i=h+1 to P) is |i-h|×2-1, when P is an even number, Tn i,1 (i=2 to h-1) is |i-h|×2 when Tn i,1 (i=h+1 to P) is |i-h|×2-1, or Tn i,1 (i=2 to h-1) is |i-h|×2-1 when Tn i,1 (i=h+1 to P) is |i-h|×2, and Tn i,j (i≥1, j>1) is Tn i,1 +(j-1)×P. a difference in Ln between the P regions of the j-th column and the P regions of the (j+1)-th column is fixed, satisfying the relationship of Ln 1,j -Ln 1,j+1 =Ln 1,j -Ln 2,j+1 =...=Ln P,j -Ln P,j+1 =P, in the P regions of the j-th column, |Ln i,j -Ln i+1,j |≤2, and the P regions form an asymmetric structure having a concave shape or a protrusion shape , wherein when the asymmetric structure has the concave shape , the concave shape has a central lowest point, P is an odd number, the central lowest point is at a region (h, j) where h is (P+1)/2+1, Ln i ,j , = N − Tn i ,j , Tn 1,1 = 0 , Tn h , 1 = P − 1 , Tn i,1 (i=2 to h-1) is P-|i-h|×2 and Tn i,1 (i=h+1 to P) is P-1-|i-h|×2, and Tn i,j (i≥1, j> 1) is Tn i,1 +(j-1)×P, and when the asymmetric structure has the protrusion shape , the protrusion shape has a central highest point at an h-th region, where h is (P+1)/2 when P is an odd number, or h is P/2+1 when P is an even number, Ln i ,j = N − Tn i ,j , Tn 1,1 is P-1, Tn h,1 is 0, when P is an odd number, Tn i,1 (i=2 to h-1) is |i-h|×2 and Tn i,1 (i=h+1 to P) is |i-h|×2-1, when P is an even number, Tn i,1 (i=2 to h-1) is |i-h|×2 when Tn i,1 (i=h+1 to P) is |i-h|×2-1, or Tn i,1 (i=2 to h-1) is |i-h|×2-1 when Tn i,1 (i=h+1 to P) is |i-h|×2, and Tn i,j (i≥1, j>1) is Tn i,1 +(j-1)×P.
A semiconductor apparatus comprising: one or more substrates ; and logic coupled to the one or more substrates , wherein the logic is implemented at least partly in one or more of configurable logic or fixed-functionality hardware logic, the logic coupled to the one or more substrates to: detect a creation of a thread; dedicate a first memory region to objects associated with the thread, wherein the first memory region is a heap region; characterised in that the logic is further configured to: conduct a first reclamation of the first memory region in response to a termination of the thread, wherein the first reclamation is to bypass a pause phase and a copy phase of a garbage collection process with respect to the heap region. one or more substrates ; and logic coupled to the one or more substrates , wherein the logic is implemented at least partly in one or more of configurable logic or fixed-functionality hardware logic, the logic coupled to the one or more substrates to: detect a creation of a thread; dedicate a first memory region to objects associated with the thread, wherein the first memory region is a heap region; characterised in that the logic is further configured to: conduct a first reclamation of the first memory region in response to a termination of the thread, wherein the first reclamation is to bypass a pause phase and a copy phase of a garbage collection process with respect to the heap region. detect a creation of a thread; dedicate a first memory region to objects associated with the thread, wherein the first memory region is a heap region; characterised in that the logic is further configured to: conduct a first reclamation of the first memory region in response to a termination of the thread, wherein the first reclamation is to bypass a pause phase and a copy phase of a garbage collection process with respect to the heap region.
A system for identifying an individual, particularly but not exclusively designed for infants and babies comprising two strips of material of unequal length to be joined together to form a hospital style identification wrist or ankle band , wherein said first strip consists of an inert Latex free plastic foam and said second strip consists of a plasticised elongated label comprising an adhesive backing covered by a support layer and an area for printing patient or similar information upon, wherein said foam strip is sufficiently wider than said plasticised strip to avoid said plasticised strip coming into contact with the patient's skin characterised in that said wrist band is assembled by partially peeling said plasticised strip off its backing support to expose part of the adhesive surface, pressing said inert foam onto the exposed adhesive surface, wrapping said foam around the wrist or ankle of the patient to be identified and finally wrapping said plasticised strip around the foam and overlapping it onto the other end of said plasticised strip itself, and wherein the adhesive on the plasticised strip is such that it will not peel away from the foam without tearing the foam and showing signs of tampering and in this way forming said wrist band securely and irremovably on the wrist or ankle of the person to be identified.
A method for heat management in a portable electronic device, the method comprising: measuring a current in the portable electronic device ; determining an operating state of the portable electronic device ; dynamically setting a threshold for the current based on the operating state; determining whether the portable electronic device will overheat at the measured current for the determined operating state by determining whether the measured current is above the threshold ; and turning off at least one component in the portable electronic device when it is determined that the portable electronic device will overheat ; wherein setting the threshold includes setting the threshold based on a maximum theoretical current for the operating state; and wherein the method further comprises incrementing a count value each time the current exceeds a threshold current based on the operating state ; and turning off the portable electronic device when the count value exceeds a count threshold ; wherein the count value is decremented for every a predetermined length of time of operation of the portable electronic device so that there is not a current reading over the threshold current. measuring a current in the portable electronic device ; determining an operating state of the portable electronic device ; dynamically setting a threshold for the current based on the operating state; determining whether the portable electronic device will overheat at the measured current for the determined operating state by determining whether the measured current is above the threshold ; and turning off at least one component in the portable electronic device when it is determined that the portable electronic device will overheat ; wherein setting the threshold includes setting the threshold based on a maximum theoretical current for the operating state; and wherein the method further comprises incrementing a count value each time the current exceeds a threshold current based on the operating state ; and turning off the portable electronic device when the count value exceeds a count threshold ; wherein the count value is decremented for every a predetermined length of time of operation of the portable electronic device so that there is not a current reading over the threshold current.
Method for ultrasonic treatment of a plastic material comprising the steps: A) positioning the plastic material between a sonotrode and a counter tool, B) bringing the sonotrode, which is excited with an ultrasonic oscillation, into contact with the plastic material during a welding phase, C) moving the sonotrode and the counter tool toward one another during a holding phase, in which neither the sonotrode nor counter tool are excited with an ultrasonic oscillation so that a force F is applied to the plastic material, wherein the force F is varied during the holding phase in step C), characterised in that the movement of the sonotrode and the counter tool toward one another is controlled or regulated in step C). A) positioning the plastic material between a sonotrode and a counter tool, B) bringing the sonotrode, which is excited with an ultrasonic oscillation, into contact with the plastic material during a welding phase, C) moving the sonotrode and the counter tool toward one another during a holding phase, in which neither the sonotrode nor counter tool are excited with an ultrasonic oscillation so that a force F is applied to the plastic material, wherein the force F is varied during the holding phase in step C),
A prefabricated structural element comprising: · an elongate body ; and · at least one first tensioner that is fastened in the elongate body in such a manner that it is suitable to compress and make the elongate body bend in a first direction; • at least one second tensioner that is fastened to said elongate body so that it is suitable to compress and make the elongate body bend in a direction that is opposite to said first direction; the structural element being characterized in that said at least one second tensioner is fastened to said elongate body at two distinct points, in that deactivation means are provided for relaxing the compression and the bending exerted on the elongate body by said second tensioner . · an elongate body ; and · at least one first tensioner that is fastened in the elongate body in such a manner that it is suitable to compress and make the elongate body bend in a first direction; • at least one second tensioner that is fastened to said elongate body so that it is suitable to compress and make the elongate body bend in a direction that is opposite to said first direction; the structural element being characterized in that said at least one second tensioner is fastened to said elongate body at two distinct points, in that deactivation means are provided for relaxing the compression and the bending exerted on the elongate body by said second tensioner .
A longitudinal expansion joint for piping systems, comprising: a first casing member having a first end adapted to connect to a first pipe ; a second casing member telescopically engaged with a second end of the first casing member , the second casing member having a first end adapted to connect to a second pipe and having a second end with a flange portion having a threaded outer surface ; a longitudinal adjustment mechanism for longitudinally adjusting a position of the second casing member relative to the first casing member ; a locking mechanism for locking a longitudinal position of the second casing member relative to the first casing member ; a sealing system including a seal unit disposed between the first casing member and the second casing member and a push plate disposed against the seal unit ; and a seal energizing mechanism for pushing against the push plate to energize the seal unit to seal between the first casing member and the second casing member , characterized in that the longitudinal adjustment mechanism includes a first plate surrounding the second casing member and a second plate surrounding the first casing member and being connected to and spaced from the first plate by a plurality of support rods , and wherein the adjustment mechanism further includes a third plate disposed between the first plate and the second plate and disposed against a shoulder of the first casing member , the third plate member including a plurality of first apertures that receive the plurality of support rods . a first casing member having a first end adapted to connect to a first pipe ; a second casing member telescopically engaged with a second end of the first casing member , the second casing member having a first end adapted to connect to a second pipe and having a second end with a flange portion having a threaded outer surface ; a longitudinal adjustment mechanism for longitudinally adjusting a position of the second casing member relative to the first casing member ; a locking mechanism for locking a longitudinal position of the second casing member relative to the first casing member ; a sealing system including a seal unit disposed between the first casing member and the second casing member and a push plate disposed against the seal unit ; and a seal energizing mechanism for pushing against the push plate to energize the seal unit to seal between the first casing member and the second casing member , characterized in that the longitudinal adjustment mechanism includes a first plate surrounding the second casing member and a second plate surrounding the first casing member and being connected to and spaced from the first plate by a plurality of support rods , and wherein the adjustment mechanism further includes a third plate disposed between the first plate and the second plate and disposed against a shoulder of the first casing member , the third plate member including a plurality of first apertures that receive the plurality of support rods .
A multiplex communication system comprising: a master device ; a first slave device which is connected to the master device through an optical communication cable , and performs multiplex communication by optical communication; and a second slave device which is connected to the first slave device through an electric communication cable , the electric communication cable being configured to be attachable and detachable, and performs multiplex communication by electric communication, wherein the first slave device performs a demultiplexing process (S21) of separating data directed to the first slave device, among multiplexed data (FRMD1) received from the master device, by multiplex communication by the optical communication, and a transfer process (S25) of multiplexing data (FRMD2) directed to the second slave device from the master device, among data demultiplexed according to the demultiplexing process, and transferring the multiplexed data to the second slave device by multiplex communication by the electric communication. a master device ; a first slave device which is connected to the master device through an optical communication cable , and performs multiplex communication by optical communication; and a second slave device which is connected to the first slave device through an electric communication cable , the electric communication cable being configured to be attachable and detachable, and performs multiplex communication by electric communication, wherein the first slave device performs a demultiplexing process (S21) of separating data directed to the first slave device, among multiplexed data (FRMD1) received from the master device, by multiplex communication by the optical communication, and a transfer process (S25) of multiplexing data (FRMD2) directed to the second slave device from the master device, among data demultiplexed according to the demultiplexing process, and transferring the multiplexed data to the second slave device by multiplex communication by the electric communication.
A method for detecting AKT-mTOR pathway proteins, comprising a. isolating AKT-mTOR pathway proteins from a biological sample; b. digesting the isolated proteins; c. assaying the digested protein(s) via mass spectrometry to determine the presence of a peptide for AKT-mTOR pathway protein(s), wherein the peptide for AKT-mTOR pathway protein(s) consist(s) of a sequence listed in Table 5; and d. detecting one or more AKT-mTOR pathway protein(s) in the sample, wherein the isolation of step a. comprises: treating a biological sample with more than one antibody selected from an antibody of Table 8 and/or Table 9 wherein the antibody of Table 8 detects non-phosphorylated AKT-mTOR pathway proteins and the antibody of Table 9 detects phosphorylated AKT-mTOR pathway proteins and capable of immunoprecipitating the AKT-mTOR pathway protein(s) from a biological sample; a. isolating AKT-mTOR pathway proteins from a biological sample; b. digesting the isolated proteins; c. assaying the digested protein(s) via mass spectrometry to determine the presence of a peptide for AKT-mTOR pathway protein(s), wherein the peptide for AKT-mTOR pathway protein(s) consist(s) of a sequence listed in Table 5; and d. detecting one or more AKT-mTOR pathway protein(s) in the sample,